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Artifacts are preserved under
`artifacts/experiments/collective_commitment_gold_v0/20260820_qwen35_9b_single_run/`.
## EXP-0034 — Explicit Rejection Gold V0
Status: Failed architecturally
Date: 2026-08-20
This isolated Stage-2 experiment tested the narrow evidence fact that a
concrete action, option, proposal or future course was explicitly rejected,
abandoned, discontinued or ruled out. It used twelve synthetic cases containing
one self-contained observation or one local target/rejection pair. Evidence
Observation V3 was not called or changed. The accepted Request/Acceptance and
Collective Commitment paths remained unchanged and were not invoked.
The strict semantic schema contains exactly `rejection_observation_id`,
`target_observation_id`, `rejection_form` and
`normalized_rejected_action_text`. `rejection_form` is closed to
`explicit_action_rejection` and `none`. A positive recognition requires a
known local target and non-empty normalized target; `none` requires both target
and normalized text to be null. Decision, outcome, topic-closure,
responsibility, ownership, protocol, confidence and graph fields are forbidden.
Target resolution is limited to the same observation or one earlier supplied
observation. Deterministic code validates schema, IDs, ordering and complete
provenance before emitting the narrow status `explicitly_rejected`.
`explicitly_rejected` means rejected by the cited evidence only. It is not yet
a final meeting decision or final topic outcome, does not close a topic, and
does not supersede an earlier commitment.
Gold results:
- RJ-01 explicit collective rejection with local target: PASS.
- RJ-02 explicit non-pursuit with paired target: PASS.
- RJ-03 self-contained collaboration rejection: FAIL. The model returned
`none`, producing one recognition false negative.
- RJ-04 personal preference: FAIL. The model promoted the preference to an
explicit rejection and derived an unsupported rejection.
- RJ-05 concern: PASS; remained a non-rejection.
- RJ-06 uncertainty: PASS; remained a non-rejection.
- RJ-07 negative recommendation: FAIL. The model promoted advice to an
explicit rejection and derived an unsupported rejection.
- RJ-08 deferral: PASS; remained a non-rejection.
- RJ-09 factual negation: PASS; remained a non-rejection.
- RJ-10 temporary non-action: FAIL. The model treated `erstmal noch nicht` as
abandonment and derived an unsupported rejection.
- RJ-11 explicit rejection with material scope: PASS. Real-plant and
Druckversuch scope were preserved.
- RJ-12 rejection plus positive alternative: PASS. Only the real-plant option
was rejected; the Technikum alternative was not absorbed.
Configuration: exactly twelve successful sequential `qwen3.5:9B` calls, one
per case, temperature 0, `think=false`, `num_ctx=16384`,
`num_predict=1024`, no retries, no voting and no prompt changes. There were zero
technical failed calls. Aggregate runner time was 15.518 seconds; summed
per-call time was 15.493 seconds, with 6,972 prompt-evaluation tokens and 681
evaluation tokens.
The outcome was eight PASS, zero PARTIAL and four FAIL. Recognition produced
three false positives (RJ-04, RJ-07 and RJ-10) and one false negative (RJ-03).
There were four strict target-field expectation mismatches: three were
consequences of false-positive rejection objects populating otherwise locally
correct antecedents, and one was the missing self-contained RJ-03 target. No
derived positive selected the wrong concrete antecedent. Qualifier-loss count
was zero, positive-alternative absorption count was zero, and no responsibility,
decision, outcome or topic-closure field leaked into model output.
Conclusion: the experiment is not architecturally successful. Deterministic
structural gates cannot contain a semantically well-formed false-positive
rejection with valid local target and provenance. The model did distinguish
concern, uncertainty, deferral and factual negation, and it handled scoped and
alternative-bearing positives correctly, but it did not reliably separate
explicit rejection from personal preference, advice or temporary non-action.
The current binary recognition `explicit_action_rejection | none` is
insufficient for reliable generalization.
No production integration, generic rejection system, prompt tuning or
cross-pattern reconciliation is justified.
Artifacts are preserved under
`artifacts/experiments/explicit_rejection_gold_v0/20260820_qwen35_9b_single_run/`.
## EXP-0035 — Negative Act Form V0
Status: Experimental; successful for form classification with normalization
limitations
Date: 2026-08-20
EXP-0034 failed because the binary `explicit_action_rejection | none` question
collapsed materially different negative acts. It missed self-contained
non-pursuit and promoted personal preference, recommendation and temporary
non-action to rejection. This isolated follow-up tested only whether those
evidence-near forms can be distinguished before any normative derivation. It
does not derive rejection, decision, outcome, topic closure, responsibility or
protocol status, and EXP-0034 remained unchanged.
The strict output schema contains exactly `observation_id`,
`negative_act_form` and `normalized_action_text`. The closed form vocabulary is
`explicit_non_pursuit`, `personal_preference`, `recommendation`,
`temporary_non_action` and `none`. Non-`none` forms require non-empty normalized
action text; `none` requires null. Rejection, status, decision, outcome,
responsibility and other normative fields are forbidden recursively. Local
context may resolve a candidate observation's pronoun, but the schema contains
no target relation and the experiment exposes no derivation function.
Gold results:
- NA-01 explicit non-pursuit: PARTIAL. The form was correct; `working with Dr.
Schlummer` omitted the continuation aspect from normalization.
- NA-02 paraphrased explicit non-pursuit: PASS.
- NA-03 personal preference: PARTIAL. The form was correct, but normalization
repeated `Ich würde das nicht machen` instead of resolving the real-plant
trial target.
- NA-04 negative recommendation: PARTIAL. The form was correct; the normalized
English action used the loose rendering `real asset` for `reale Anlage`.
- NA-05 temporary non-action: PASS.
- NA-06 concern only: PASS with `none` and null action text.
- NA-07 uncertainty: PASS with `none` and null action text.
- NA-08 factual negation: PASS with `none` and null action text.
Expected-versus-actual form confusion was entirely diagonal:
| Expected form | Actual form | Count |
| --- | --- | ---: |
| `explicit_non_pursuit` | `explicit_non_pursuit` | 2 |
| `personal_preference` | `personal_preference` | 1 |
| `recommendation` | `recommendation` | 1 |
| `temporary_non_action` | `temporary_non_action` | 1 |
| `none` | `none` | 3 |
Configuration: exactly eight successful sequential `qwen3.5:9B` calls, one
per case, temperature 0, `think=false`, `num_ctx=16384`,
`num_predict=1024`, no retries, no voting and no prompt changes. There were zero
technical failures. Aggregate runner time was 8.688 seconds; summed per-call
time was 8.686 seconds, with 4,183 prompt-evaluation tokens and 310 evaluation
tokens.
The result was five PASS, three PARTIAL and zero FAIL. All eight
`negative_act_form` classifications matched Gold. There was no unsupported
semantic strengthening and no rejection, status, decision, outcome,
responsibility or topic-closure leakage. Normalized action meaning was fully
acceptable in five cases and imperfect in three.
Conclusion: the finer evidence-near form vocabulary successfully distinguished
the four semantic boundaries that defeated the binary rejection experiment in
this small Gold set. The result supports separating negative-act-form
recognition from later normative derivation, but local target normalization is
not yet uniformly reliable. It does not justify modifying EXP-0034, deriving
rejection, production integration or beginning cross-pattern reconciliation.
Artifacts are preserved under
`artifacts/experiments/negative_act_form_v0/20260820_qwen35_9b_single_run/`.
## EXP-0036 — Controlled Rejection Derivation V1
Status: Experimental; architecturally unsuccessful
Date: 2026-08-20
This isolated experiment followed the failed binary rejection baseline
(EXP-0034) and successful Negative Act Form classification (EXP-0035). Its V1
hypothesis was to classify the negative act first, resolve its local target in
a separate semantic call, and only then derive `explicitly_rejected`
deterministically. It did not modify either predecessor or any accepted Stage-2
pattern, and it has no production integration.
The target recognizer emitted exactly `candidate_observation_id`,
`target_observation_id`, and `normalized_target_text`. Only
`explicit_non_pursuit` was deterministically eligible. Personal preference,
recommendation, temporary non-action, and `none` could never derive rejection,
even with a valid target. Provenance, local membership, ordering, non-empty
target text, and strict non-normative output were additional gates.
`explicitly_rejected` means rejected by the cited evidence only, not a final
decision, topic outcome, permanent state, or closure.
The run reused five exact accepted Negative Act Form outputs and made three new
Negative Act calls plus eight target-resolution calls. All calls used
`qwen3.5:9B`, temperature 0, `think=false`, `num_ctx=16384`,
`num_predict=1024`, no retries, voting, or prompt changes.
| Case | Negative Act expected / actual | Target result | Verdict |
| --- | --- | --- | --- |
| CR-01 | `explicit_non_pursuit` / same | Model returned the string `"null"` as an unknown ID; self-contained target was not linked | FAIL |
| CR-02 | `explicit_non_pursuit` / same | `obs_1`, external solution and continuation preserved | PASS |
| CR-03 | `personal_preference` / same | `obs_1`; eligibility gate prevented rejection | PASS |
| CR-04 | `recommendation` / same | `obs_1`; eligibility gate prevented rejection | PASS |
| CR-05 | `temporary_non_action` / same | `obs_1`; eligibility gate prevented rejection | PASS |
| CR-06 | `none` / same | Null target; final non-rejection was correct, but expected local target was unresolved | FAIL |
| CR-07 | `explicit_non_pursuit` / same | `obs_1`; real-plant and pressure-test scope survived, but normalization remained proposition-like | PARTIAL |
| CR-08 | `explicit_non_pursuit` / same | `obs_1`; real-plant scope preserved and Technikum alternative excluded | PASS |
Result: five PASS, one PARTIAL, two FAIL. All eight Negative Act forms were
correct. There were no false-positive rejections: the valid targets in CR-03,
CR-04, and CR-05 could not override their ineligible forms. There was one
false-negative rejection, CR-01, caused by invalid target output. Target
resolution missed two expected links (invalid CR-01 and null CR-06), so the
wrong/unresolved-target count was two. CR-06 exposed a strategy flaw: a
non-eligible Negative Act form should not be required to pass target resolution
when it cannot derive rejection. Qualifier-loss count was zero. CR-08 isolated
the positive alternative successfully. No individual owner, responsibility,
decision, outcome, topic-closure, or LLM-emitted rejection status appeared.
There were 3 new Negative Act calls, 8 target calls, 5 accepted classification
reuses, zero technical call failures, and one structural target-validation
failure. Aggregate runner time was 11.951 seconds.
Conclusion: negative-act-form gating is promising and successfully contains
the semantic false positives that defeated EXP-0034, but the experiment is not
architecturally successful. The current target-resolution strategy failed the
required self-contained positive CR-01 and unnecessarily evaluated the
ineligible CR-06 path; it is not reliable enough for rejection derivation.
Artifacts are preserved under
`artifacts/experiments/controlled_rejection_v1/20260820_qwen35_9b_single_run/`.
## EXP-0037 — Target Resolution V0
Status: Experimental; FAILED for target resolution
Date: 2026-08-20
Controlled Rejection V1 showed that fine-grained Negative Act Form eligibility
contained false-positive rejection, but its target strategy failed a
self-contained positive and unnecessarily resolved a target for an ineligible
`none` form. This isolated experiment tested target resolution only. It
contains no rejection derivation, status, decision, outcome, responsibility,
topic closure, or production integration.
Eligibility was deterministic: only `explicit_non_pursuit` could reach the
resolver. TR-05 personal preference, TR-06 recommendation, TR-07 temporary
non-action, and TR-08 `none` stopped before prompt construction and recorded an
explicit skipped-call artifact. This hard gate worked in all four cases.
The target schema contained exactly `candidate_observation_id`,
`target_observation_id`, and `normalized_target_text`, with local IDs,
same-or-earlier ordering, unique evidence provenance, null consistency, and
recursive normative-field exclusion. TR-01 used the self-contained strategy:
the prompt stated that linkage was deterministically fixed to the candidate and
requested semantic normalization only. TR-02 through TR-04 used paired local
resolution. No original transcript or new Negative Act classification call was
used.
| Case | Form / eligible | Call | Target result | Verdict |
| --- | --- | --- | --- | --- |
| TR-01 | `explicit_non_pursuit` / yes | yes | Returned string `"null"`; required same-observation target unresolved | FAIL |
| TR-02 | `explicit_non_pursuit` / yes | yes | Returned string `"null"`; `obs_1` unresolved | FAIL |
| TR-03 | `explicit_non_pursuit` / yes | yes | Returned string `"null"`; scoped `obs_1` unresolved | FAIL |
| TR-04 | `explicit_non_pursuit` / yes | yes | Returned string `"null"`; real-plant target unresolved | FAIL |
| TR-05 | `personal_preference` / no | no | Deterministically skipped | PASS |
| TR-06 | `recommendation` / no | no | Deterministically skipped | PASS |
| TR-07 | `temporary_non_action` / no | no | Deterministically skipped | PASS |
| TR-08 | `none` / no | no | Deterministically skipped | PASS |
Result: four PASS, zero PARTIAL, four FAIL. Exactly four successful Ollama
calls were made, all for eligible cases; there were zero technical call
failures and four structural validation failures. All four raw responses used
the JSON string `"null"` as target ID rather than a supplied observation ID or
JSON null. Wrong-target count and unresolved-target count were therefore four.
No qualifier-preservation claim can be made because no eligible positive target
passed validation. TR-04 alternative isolation likewise could not be
established. No rejection, status, decision, outcome, responsibility, or other
normative leakage occurred, and no rejection derivation was performed.
Configuration: `qwen3.5:9B`, temperature 0, `think=false`,
`num_ctx=16384`, `num_predict=1024`, no retries, voting, or prompt changes.
Aggregate runner time was 4.034 seconds.
Conclusion: eligibility gating is successful and should be retained; it fully
prevents unnecessary target calls for ineligible Negative Act forms. Target
Resolution V0 itself failed structurally across all eligible cases. Neither the
self-contained nor paired strategy produced a valid target, and merely
instructing deterministic self-linkage in the semantic prompt did not make the
linkage structurally deterministic. The repeated `"null"` string pattern
requires diagnosis before changing the architecture or prompt. No rejection
derivation is justified by this result.
Artifacts are preserved under
`artifacts/experiments/target_resolution_v0/20260820_qwen35_9b_single_run/`.
## EXP-0038 — Target Resolution V1 Diagnostic
Status: Experimental; linkage boundary successful, normalization incomplete
Date: 2026-08-20
Forensics on failed Target Resolution V0 found a definite prompt defect: its
illustrative value `"observation ID or null"` placed both alternatives inside
a JSON string. V0 also sent only `format: "json"`, which enforced JSON syntax
but not field types. This isolated diagnostic changed only the linkage/output
boundary. It contains no rejection derivation or normative semantics.
Ollama 0.32.6 accepted a true JSON Schema object in `format`. TR1-V1 removed
target selection from the model output entirely and deterministically linked
the self-contained candidate to itself. TR2-V1 through TR4-V1 used a closed
allowed-ID list, an enum of those IDs plus JSON null, typed positive and null
examples, recursive strict validation, and one fixed paired prompt. Linkage and
normalization were persisted separately.
| Case | Strategy / ID source | Target | Normalized target | Verdict |
| --- | --- | --- | --- | --- |
| TR1-V1 | self-contained / deterministic | `obs_1` | `Mit Dr. Schlummer arbeiten wir nicht weiter.` retained negation instead of a positive action meaning | FAIL |
| TR2-V1 | paired / LLM | `obs_1` | `externe Lösung weiterverfolgen` | PASS |
| TR3-V1 | paired / LLM | `obs_1` | `reale Anlage zur Diskussion` lost `Druckversuch` purpose and the `nutzen` action | FAIL |
| TR4-V1 | paired / LLM | `obs_1` | `Versuch in der realen Anlage durchführen`; Technikum excluded | PASS |
Result: two PASS, zero PARTIAL, two FAIL. All four responses passed their true
JSON Schemas. Every resulting target was `obs_1`; wrong-target and
unresolved-target counts were zero. The string `"null"` recurrence count was
zero, and there were zero structural validation failures. TR1 preserved the
collaboration, person, and continuation wording but failed positive-action
normalization by retaining negation. TR3 had one material scope loss. TR4
preserved real-plant scope and isolated the Technikum alternative. No
normative leakage occurred.
Configuration: exactly four `qwen3.5:9B` calls, temperature 0,
`think=false`, `num_ctx=16384`, `num_predict=1024`, no retries, voting, or
prompt tuning. Aggregate runner time was 4.557 seconds.
Conclusion: the V0 string-null failure was primarily a linkage/output-boundary
failure rather than evidence that observation-ID linkage is semantically
impossible. True typed schemas, closed ID lists, and deterministic self-linkage
eliminated every structural and target-ID failure. The experiment still fails
its complete acceptance criterion because target normalization is not reliably
positive or scope-preserving. These results justify separating linkage from
normalization, but not deriving rejection or integrating a new pipeline.
Artifacts are preserved under
`artifacts/experiments/target_resolution_v1_diagnostic/20260820_qwen35_9b_single_run/`.
## EXP-0039 — Target Normalization V0
Status: Experimental; normalization improved but incomplete
Date: 2026-08-20
Target Resolution V1 established correct linkage for all four narrow cases and
eliminated structural ID failures with deterministic self-linkage, closed ID
lists, and true JSON Schemas. Its remaining failures were normalization-only.
This isolated follow-up therefore accepted candidate and target IDs as fixed
input and tested only reconstruction of the positive German action meaning. It
contains no target selection, Negative Act classification, eligibility logic,
rejection derivation, or production integration.
The strict output schema contained exactly `candidate_observation_id`,
`target_observation_id`, and `normalized_target_text`. Both IDs were constrained
to their supplied values with JSON Schema `const`; normalized text was a
non-empty string and null was disallowed. The one fixed prompt required removal
of negative polarity, preservation of action, continuation, material scope and
source language, and exclusion of separate alternatives.
| Case | Actual normalized target | Verdict |
| --- | --- | --- |
| TN-01 | `Mit Dr. Schlummer zusammenarbeiten` | FAIL: positive polarity and collaboration survived, but continuation was lost |
| TN-02 | `externe Lösung weiterverfolgen` | PASS |
| TN-03 | `reale Anlage für den Druckversuch nutzen` | PASS |
| TN-04 | `Versuch in der realen Anlage durchführen` | PASS; Technikum alternative excluded |
Result: three PASS, zero PARTIAL, one FAIL. All four outputs passed strict
schema validation and copied both fixed IDs exactly, so changed-ID count was
zero. Polarity-error count was zero: even TN-01 removed rejection and negation.
Action/continuation-loss count was one (TN-01); material purpose/location
scope-loss count was zero; alternative-absorption count was zero. There was no
unsupported strengthening or normative leakage.
Configuration: exactly four `qwen3.5:9B` calls, temperature 0,
`think=false`, true JSON Schema, `num_ctx=16384`, `num_predict=1024`, no
retries, voting, or prompt tuning. Aggregate runner time was 5.066 seconds.
Conclusion: isolating normalization solved the polarity and scoped-action
failures seen in Target Resolution V1 for three of four cases, including exact
pressure-test scope and alternative isolation. Continuation semantics remain
unreliable in the self-contained collaboration case, so Target Normalization
V0 does not meet its full acceptance criterion. The result does not justify
rejection derivation or production integration.
Artifacts are preserved under
`artifacts/experiments/target_normalization_v0/20260820_qwen35_9b_single_run/`.
## EXP-0026 — Topic-oriented Discussion Subject reconstruction V2 prototype
Date: 2026-08-11
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# Protocol Generation Decision
## Executive Summary
Meeting Lab tested ten protocol-generation and runtime variants against the
same 93.5-minute reference meeting, `project_process_meeting`. The current
evidence does not support a fully automatic protocol. The best practical local
baseline remains one direct call to `qwen3.6:35B-A3B`, followed by informed
human review. It is fast and produces readable, broadly useful Markdown, but it
still overstates consensus, compresses unresolved process boundaries, misses
some challenge and follow-up paths, and can infer unsafe ownership. Its current
quality verdict is **C — promising but insufficient**.
Additional prompting, review, Meeting Map, hierarchical, diarized, dense-model
and 70B-scale variants did not produce a reliable step change. Some improved
individual dimensions, but none reached a stable B result or removed the need
for substantive review. This is a current evidence-based product choice, not a
permanent architecture decision.
## Experiments Compared
All protocol rows used the complete cleaned transcript and meeting context
unless stated otherwise. A dash means that the artifact did not record the
number; it is not an estimate. Verdicts marked “assessment” are comparative
assessments of saved outputs because those older artifact directories contain
no formal `quality_review.json`.
| Experiment | Model | Architecture | LLM calls | Prompt tokens | Runtime | Human editing | Verdict | Main strength | Main failure | MVP | Research |
| --- | --- | --- | ---: | ---: | ---: | --- | --- | --- | --- | --- | --- |
| Direct one-shot baseline | Qwen3.6 35B-A3B | Direct full-context protocol | 1 | 18,385 | 72.5 s cold; about 38 s inference | Not recorded | C | Fast, readable, broad topic outline | Consensus and ownership overpromotion; missing boundaries and follow-up | **Yes, with review** | Baseline |
| Conservative one-shot | Qwen3.6 35B-A3B | Direct with stronger safety instructions | 1 | 19,120 | 39.5 s warm | Not recorded | C (assessment) | Better uncertainty and pending-feedback language | Still invents or upgrades named follow-up actions | No | Limited |
| Draft → review | Qwen3.6 35B-A3B | Conservative draft plus review call | 2 | 39,071 total | About 110.4 s summed | Not recorded | C (assessment) | Removes some unsafe named attribution | Does not reliably restore omitted content; empty/weak action sections remain | No | Limited |
| Meeting Map → protocol | Qwen3.6 35B-A3B | Semantic map followed by rendering | 2 | 39,129 total | 134.8 s | Not recorded | C (assessment) | Explicit intermediate structure | Map errors propagate: false consensus and named ownership remain | No | Yes |
| Hierarchical notes → protocol | Qwen3.6 35B-A3B | Five chunk-note calls plus synthesis | 6 | 32,145 total | 251.1 s | Not recorded | C (assessment) | Highest recall in several detailed/open topics | Amplifies unsupported speaker/name interpretations and confirmed actions | No | Yes |
| Segment-level anonymous diarization | Qwen3.6 35B-A3B | One-shot over 1,154 labeled segments | 1 | 39,308 | 125.4 s | 25–35 min | C | Preserves some filtered-idea challenge structure | Token count more than doubled; actions and deadlines became less safe | No | No further protocol tests |
| Turn-merged anonymous diarization | Qwen3.6 35B-A3B | One-shot over 435 merged turns | 1 | 22,490 | 101.2 s | 25–35 min | C | Corrected token inflation; recovered some topic and feedback detail | Still did not beat raw input; unsafe actions/deadlines persisted | No | UI/search only |
| Dense one-shot | Qwen3.5 27B | Direct full-context protocol | 1 | 18,385 | 181.2 s | Not recorded | C (assessment) | Somewhat better recall of process details | Much slower; no material overall quality gain | No | No |
| 70B scale one-shot | Llama 3.3 70B Q3_K_S | Dense, 64% CPU / 36% GPU | 1 | 21,156 | 470.1 s warm | 45–60 min | D | Technically proved a 70B hybrid load can run | Severe coverage loss, invented governance, internal contradiction | No | Negative scale result |
| Ollama vs native llama.cpp | Qwen3.6 35B-A3B | Same Q4_K_M GGUF; ROCm/Vulkan servers | 1 per backend | 18,385 | ROCm 38.4 s; Vulkan 42.3 s | N/A | Runtime only | Native ROCm reached 51.38 generated tok/s | No meaningful end-to-end advantage; more operational complexity | Ollama | Runtime reference |
The draft-review total combines the saved conservative draft call and the
saved review call. Its review metadata itself reports only the one new review
call (19,951 prompt tokens and 70.8 seconds). The direct baseline's 72.5-second
wall time includes a 34.5-second cold load; its measured prompt evaluation plus
generation was 37.8 seconds. These distinctions explain apparent runtime
differences between otherwise similar Qwen3.6 calls.
### Recurring quality patterns
- **Topic coverage and factual accuracy:** Direct Qwen3.6 captures the main
process but misses the second review after enrichment, project reporting and
parts of the filtered-idea challenge path. Hierarchical processing recalls
more detail but introduces too many unsupported interpretations. Llama 3.3
loses most of the meeting and invents a governance role for the
Geschäftsführung.
- **Consensus and unresolved boundaries:** Every broad one-shot family remains
vulnerable to turning discussion or a working direction into agreement. The
unresolved boundary between central coordination and autonomous department
work, and the uncertainty around universal filter criteria, are especially
fragile.
- **Visibility, veto and reconsideration:** No approach consistently preserves
initial filtering, later cross-functional challenge, reconsideration after
enrichment and the return through the project cycle together.
- **Stakeholder feedback:** Pending Jovana and Björn feedback is an important
quality probe. Some variants preserve both; segment-level diarization drops
Björn, while Llama 3.3 drops both.
- **Actions and attribution:** Added structure does not guarantee safety.
Conservative, reviewed, Meeting Map, hierarchical and diarized outputs still
promote proposals or expected work into confirmed actions, infer owners from
roles or conversational context, or invent deadlines. Human review remains
mandatory.
## Model Findings
### Qwen3.6:35B-A3B
Qwen3.6 is the best overall local practical baseline. Its Q4_K_M model is
operationally fast on the RX 9070/CPU hybrid setup, follows the requested
Markdown form and usually provides a useful first draft. It remains verdict C:
larger context and fluent synthesis do not reliably protect evidence strength,
responsibility attribution or unresolved process boundaries.
### Qwen3.5:27b dense
The dense 27B run recalled some process details better than the MoE baseline,
but took 181.2 seconds and generated at 8.45 tokens/s. The gains did not amount
to a material overall quality improvement. This result does not prove that
dense models are generally inferior; it shows that this dense model is not a
better product choice on this hardware and meeting.
### Llama 3.3 70B Q3_K_S
Llama 3.3 70B was technically runnable at 32k context with a 42 GB loaded
footprint and a 64% CPU / 36% GPU split. Its 7m50s warm meeting run produced a
very short, materially worse protocol: one critical invented governance claim,
five new major errors and an estimated 45–60 minutes of editing. Raw parameter
count alone is therefore insufficient. The older model generation and
aggressive Q3 quantization are plausible contributors, but this experiment
does not isolate or prove either cause.
## Runtime Findings
The native comparison reused the exact 23,938,321,664-byte Qwen3.6 Q4_K_M GGUF
that Ollama uses. The tested `llama-server` binary was the llama.cpp runtime
shipped with the installed Ollama distribution, not an independent source
build.
Native ROCm processed the reference request in 38.4 seconds and generated at
51.38 tokens/s. Vulkan took 42.3 seconds and generated at 46.73 tokens/s. The
comparable Ollama baseline generated at 44.68 tokens/s, with about 37.8 seconds
of prompt evaluation plus generation when load time is excluded. Output token
counts differed, so generation throughput alone is not an end-to-end quality or
latency comparison.
Native ROCm gained some generation throughput, but did not provide a meaningful
end-to-end advantage for this workload. Vulkan required more host spill and was
not preferable. Ollama already provides the relevant llama.cpp runtime
components, model lifecycle and API integration; it remains the preferred
routine Meeting Lab runtime.
## Diarization Findings
### Technical feasibility
Pyannote `speaker-diarization-community-1` successfully processed the
93.5-minute meeting on CPU in 1,647 seconds (about 27m27s), an RTF of 0.293. It
detected four anonymous clusters and assigned 1,145 of 1,154 Whisper segments
(99.2%). Peak RSS was about 3.3 GiB. This establishes technical feasibility; it
does not establish speaker identity or diarization accuracy against labeled
ground truth.
### Protocol-quality impact
Annotating every Whisper segment increased the Qwen prompt from 18,385 to
39,308 tokens, confounding speaker structure with fragmentation and token
inflation. Deterministic turn merging reduced 1,154 segments to 435 turns and
the complete prompt to 22,490 tokens. That controlled the main representation
confound, but the resulting protocol still did not materially outperform the
raw transcript and remained verdict C.
Anonymous diarization is therefore not justified as a mandatory MVP
protocol-quality feature. This does **not** mean diarization is generally
useless. It may remain valuable for speaker-aware UI, navigation and search,
participation statistics, traceability, or later carefully validated real-name
mapping.
## Semantic Research Findings
The semantic experiments provide architectural evidence, but should not
dominate the product decision:
- **Evidence Observation V3** is a strong evidence-near candidate stage. With
Qwen3.5 9B it achieved 8 PASS, 1 PARTIAL and 0 FAIL while preserving hedges,
alternatives, requests, commitments and boundaries in natural language.
- **Request/Acceptance** and **Collective Commitment** show that narrow semantic
recognition followed by deterministic provenance, ordering, addressee,
negation and deadline gates can safely derive limited consequences. Model
recognition errors were contained without inventing individual ownership.
- **Explicit Rejection** failed when reduced to a coarse binary recognition
problem: semantically valid false positives passed structural gates.
- **Negative Act Form** worked better by distinguishing non-pursuit, personal
preference, recommendation and temporary non-action before any normative
derivation. All eight form classifications matched Gold, although normalized
action text was imperfect in three cases.
- **Target Resolution V0** failed because prompt examples and a weak JSON
boundary encouraged the string `"null"` instead of typed linkage.
**Target Resolution V1** fixed all linkage/ID failures with deterministic
self-linkage, closed ID lists and true JSON Schema, but normalization remained
incomplete.
- **Target Normalization V0** improved polarity and scope preservation to 3/4
PASS, but still lost continuation meaning in the collaboration case.
These findings support Meeting Lab as a research and validation track. They do
not yet justify placing a multi-stage semantic pipeline on the MVP critical
path.
## Current MVP Decision
The current product path is:
```text
Audio
-> transcription
-> direct qwen3.6:35B-A3B protocol generation through Ollama
-> informed human review
-> final protocol
```
The first MVP should treat the generated protocol as an editable draft, not an
authoritative semantic record. Human review must specifically check consensus,
unresolved boundaries, competing positions, action status, owners, deadlines
and pending stakeholder feedback.
Diarization is optional and deferred. The semantic research pipeline remains
in Meeting Lab, outside the MVP critical path. Ollama remains the default local
runtime.
## Rejected / Deferred Directions
- Do not continue Qwen3.6 prompt variants as the main quality strategy.
- Do not add draft-review, Meeting Map or hierarchical generation to the MVP;
their added calls and complexity did not deliver reliable quality gains.
- Do not continue anonymous-diarization protocol experiments. Revisit
diarization for UI, search, statistics or traceability instead.
- Do not use Qwen3.5 27B or Llama 3.3 70B Q3_K_S as the routine protocol model.
- Do not replace Ollama with a manually managed native llama.cpp service for
this workload.
- Retain semantic experiments, but defer production integration and broad
semantic consolidation.
## Open Questions
1. How does a genuinely newer, materially stronger model perform when a useful
quantization fits the available RAM/VRAM without severe swap?
2. If project policy permits, what quality ceiling does the unchanged reference
prompt achieve with a commercial frontier model?
3. What is the measured reviewer time and correction distribution once the
direct Qwen3.6 draft path is exercised in an end-to-end MVP workflow?
4. Which non-protocol product benefits justify revisiting diarization later?
No further Qwen3.6 prompt variants, anonymous-diarization protocol runs or old
70B Q3 scale tests are recommended.
## Recommended Next Product Step
Build the practical end-to-end MVP around direct Qwen3.6 generation and an
explicit human review handoff. Measure reviewer time and correction categories
in real use. Keep the experiment artifacts and semantic Gold work as validation
evidence, but do not block the first product loop on broader research stages.
@@ -0,0 +1,7 @@
#!/usr/bin/env python3
import sys
from pathlib import Path
ROOT = Path(__file__).resolve().parents[1]
if str(ROOT) not in sys.path: sys.path.insert(0, str(ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_rejection_v1 import main
if __name__ == "__main__": raise SystemExit(main())
@@ -0,0 +1,16 @@
#!/usr/bin/env python3
"""Repository entry point for the explicit-rejection Gold experiment."""
import sys
from pathlib import Path
REPO_ROOT = Path(__file__).resolve().parents[1]
if str(REPO_ROOT) not in sys.path:
sys.path.insert(0, str(REPO_ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_rejection import main # noqa: E402
if __name__ == "__main__":
raise SystemExit(main())
@@ -0,0 +1,16 @@
#!/usr/bin/env python3
"""Repository entry point for the Negative Act Form experiment."""
import sys
from pathlib import Path
REPO_ROOT = Path(__file__).resolve().parents[1]
if str(REPO_ROOT) not in sys.path:
sys.path.insert(0, str(REPO_ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_negative_act import main # noqa: E402
if __name__ == "__main__":
raise SystemExit(main())
@@ -0,0 +1,7 @@
#!/usr/bin/env python3
import sys
from pathlib import Path
ROOT=Path(__file__).resolve().parents[1]
if str(ROOT) not in sys.path: sys.path.insert(0,str(ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_target_normalization import main
if __name__=="__main__": raise SystemExit(main())
@@ -0,0 +1,7 @@
#!/usr/bin/env python3
import sys
from pathlib import Path
ROOT = Path(__file__).resolve().parents[1]
if str(ROOT) not in sys.path: sys.path.insert(0, str(ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_target_resolution import main
if __name__ == "__main__": raise SystemExit(main())
@@ -0,0 +1,7 @@
#!/usr/bin/env python3
import sys
from pathlib import Path
ROOT=Path(__file__).resolve().parents[1]
if str(ROOT) not in sys.path: sys.path.insert(0,str(ROOT))
from src.meeting_lab.controlled_semantic_derivation.experiment_target_resolution_v1 import main
if __name__=="__main__": raise SystemExit(main())
@@ -0,0 +1,277 @@
#!/usr/bin/env python3
"""Isolated evidence-near Negative Act Form classification experiment."""
from __future__ import annotations
import argparse
import json
import time
from pathlib import Path
from typing import Any
from .experiment_h import (
DEFAULT_ENDPOINT,
DEFAULT_MODEL,
DerivationValidationError,
OBSERVATION_KEYS,
build_ollama_payload,
call_ollama,
)
GOLD_SCHEMA_VERSION = "experimental-negative-act-form-gold-v0"
RECOGNITION_KEYS = {"observation_id", "negative_act_form", "normalized_action_text"}
NEGATIVE_ACT_FORMS = {
"explicit_non_pursuit", "personal_preference", "recommendation",
"temporary_non_action", "none",
}
FORBIDDEN_LLM_KEYS = {
"rejection_form", "explicitly_rejected", "status", "decision", "outcome",
"topic_status", "responsible_person", "responsibility", "owner",
"requested_actor", "action_item", "protocol", "protocol_category",
"confidence", "relation", "relations", "graph", "unresolved_issue",
}
PROMPT_TEMPLATE = """Classify only the negative semantic form expressed by the candidate observation, using earlier supplied V3-style observations only as local context for pronouns or shortened references.
The candidate observation is {candidate_observation_id}.
Choose exactly one negative_act_form:
- explicit_non_pursuit: explicitly states that an action, option, collaboration, or course will not be continued or pursued. This is stronger than preference, advice, or temporary delay.
- personal_preference: the speaker states what they personally would or would not do, without establishing collective non-pursuit.
- recommendation: the speaker advises for or against an action without establishing abandonment.
- temporary_non_action: the action is postponed, deferred, or explicitly not done for now without abandonment.
- none: none of those four forms is present, including mere concern, uncertainty, negative sentiment, or factual negation.
Do not collapse non-pursuit into temporary non-action. Do not convert a personal conditional preference into collective non-pursuit. Do not convert advice into non-pursuit. Speaker identity does not change personal preference into collective non-pursuit.
When the form is not none, return concise normalized action meaning. Resolve a pronoun only from the supplied local context. If its target is genuinely ambiguous, return none rather than guessing. When the form is none, normalized_action_text must be null. Keep normalized action text in the observation language.
Do not derive or output rejection, status, decision, outcome, topic closure, responsibility, ownership, Action Item, protocol category, confidence, relations, graphs, or unresolved issues.
Return exactly this JSON shape and no additional fields:
{{
"observation_id": "{candidate_observation_id}",
"negative_act_form": "explicit_non_pursuit | personal_preference | recommendation | temporary_non_action | none",
"normalized_action_text": "concise action meaning" | null
}}
V3-style observations:
{observations_json}
"""
def _exact_keys(value: dict[str, Any], required: set[str], location: str) -> None:
missing = required - value.keys()
unknown = value.keys() - required
if missing:
raise DerivationValidationError(f"{location} missing required keys: {sorted(missing)}")
if unknown:
raise DerivationValidationError(f"{location} has unknown keys: {sorted(unknown)}")
def _nonempty_text(value: Any, location: str) -> str:
if not isinstance(value, str) or not value.strip():
raise DerivationValidationError(f"{location} must be a non-empty string")
return value.strip()
def _validate_observations(observations: Any) -> None:
if not isinstance(observations, list) or not observations:
raise DerivationValidationError("observations must be a non-empty list")
seen_observations: set[str] = set()
seen_evidence: set[str] = set()
for index, observation in enumerate(observations):
location = f"observations[{index}]"
if not isinstance(observation, dict):
raise DerivationValidationError(f"{location} must be an object")
_exact_keys(observation, OBSERVATION_KEYS, location)
observation_id = _nonempty_text(observation["observation_id"], f"{location}.observation_id")
evidence_id = _nonempty_text(observation["evidence_id"], f"{location}.evidence_id")
if observation_id in seen_observations or evidence_id in seen_evidence:
raise DerivationValidationError("observation and evidence provenance must be unique")
seen_observations.add(observation_id)
seen_evidence.add(evidence_id)
_nonempty_text(observation["content"], f"{location}.content")
_nonempty_text(observation["speaker"], f"{location}.speaker")
for field in ("named_person", "addressee"):
if observation[field] is not None:
_nonempty_text(observation[field], f"{location}.{field}")
def load_gold_cases(path: Path) -> list[dict[str, Any]]:
data = json.loads(path.read_text(encoding="utf-8-sig"))
if not isinstance(data, dict):
raise DerivationValidationError("Gold fixture must be an object")
_exact_keys(data, {"schema_version", "cases"}, "Gold fixture")
if data["schema_version"] != GOLD_SCHEMA_VERSION:
raise DerivationValidationError("unexpected Gold fixture schema_version")
cases = data["cases"]
if not isinstance(cases, list) or not cases:
raise DerivationValidationError("Gold fixture cases must be a non-empty list")
seen: set[str] = set()
for case in cases:
_exact_keys(case, {"case_id", "description", "observations", "expected"}, "Gold case")
case_id = _nonempty_text(case["case_id"], "Gold case.case_id")
if case_id in seen:
raise DerivationValidationError(f"duplicate case ID: {case_id}")
seen.add(case_id)
_validate_observations(case["observations"])
if len(case["observations"]) not in (1, 2):
raise DerivationValidationError("Negative Act cases require one or two observations")
return cases
def build_prompt(case: dict[str, Any]) -> str:
observations = case["observations"]
_validate_observations(observations)
candidate_id = observations[-1]["observation_id"]
return PROMPT_TEMPLATE.format(
candidate_observation_id=candidate_id,
observations_json=json.dumps(observations, ensure_ascii=False, indent=2),
)
def parse_model_json(raw_text: str) -> dict[str, Any]:
data = json.loads(raw_text)
if not isinstance(data, dict):
raise DerivationValidationError("semantic classification must be an object")
return data
def _reject_forbidden_keys(value: Any, location: str = "output") -> None:
if isinstance(value, dict):
forbidden = FORBIDDEN_LLM_KEYS.intersection(value)
if forbidden:
raise DerivationValidationError(f"{location} contains forbidden semantic keys: {sorted(forbidden)}")
for key, item in value.items():
_reject_forbidden_keys(item, f"{location}.{key}")
elif isinstance(value, list):
for index, item in enumerate(value):
_reject_forbidden_keys(item, f"{location}[{index}]")
def validate_classification(data: Any, observations: list[dict[str, Any]]) -> dict[str, Any]:
_validate_observations(observations)
if not isinstance(data, dict):
raise DerivationValidationError("semantic classification must be an object")
_reject_forbidden_keys(data)
_exact_keys(data, RECOGNITION_KEYS, "output")
observation_id = _nonempty_text(data["observation_id"], "output.observation_id")
if observation_id not in {item["observation_id"] for item in observations}:
raise DerivationValidationError("classification references unknown observation")
form = data["negative_act_form"]
if form not in NEGATIVE_ACT_FORMS:
raise DerivationValidationError("negative_act_form has an unsupported value")
action_text = data["normalized_action_text"]
if form == "none":
if action_text is not None:
raise DerivationValidationError("none form requires null normalized_action_text")
else:
_nonempty_text(action_text, "output.normalized_action_text")
return data
def _concepts_present(text: str | None, concepts: list[list[str]]) -> bool:
if not concepts:
return text is None
if not isinstance(text, str):
return False
folded = text.casefold()
return all(any(alias.casefold() in folded for alias in alternatives) for alternatives in concepts)
def evaluate_case(case: dict[str, Any], classification: dict[str, Any]) -> dict[str, Any]:
validate_classification(classification, case["observations"])
expected = case["expected"]
observation_correct = classification["observation_id"] == expected["observation_id"]
form_correct = classification["negative_act_form"] == expected["negative_act_form"]
action_correct = _concepts_present(classification["normalized_action_text"], expected["action_concepts"])
unsupported_strengthening = expected["negative_act_form"] == "none" and classification["negative_act_form"] != "none"
classification_label = "PASS" if observation_correct and form_correct and action_correct else ("PARTIAL" if observation_correct and form_correct else "FAIL")
return {
"case_id": case["case_id"], "classification": classification_label,
"expected_negative_act_form": expected["negative_act_form"],
"actual_negative_act_form": classification["negative_act_form"],
"observation_id_correct": observation_correct,
"normalized_action_meaning_correct": action_correct,
"unsupported_semantic_strengthening": unsupported_strengthening,
"normative_leakage": False,
}
def _write_json(path: Path, value: Any) -> None:
path.write_text(json.dumps(value, ensure_ascii=False, indent=2) + "\n", encoding="utf-8")
def run_experiment(args: argparse.Namespace) -> dict[str, Any]:
cases = load_gold_cases(args.cases)
args.output.mkdir(parents=True, exist_ok=False)
_write_json(args.output / "gold_cases.json", {"schema_version": GOLD_SCHEMA_VERSION, "cases": cases})
evaluations: list[dict[str, Any]] = []
successful_calls = 0
technical_failures = 0
started = time.perf_counter()
for case in cases:
case_dir = args.output / case["case_id"].lower()
case_dir.mkdir()
observations = case["observations"]
_write_json(case_dir / "v3_style_input_observations.json", observations)
prompt = build_prompt(case)
(case_dir / "prompt.txt").write_text(prompt, encoding="utf-8")
try:
raw, metadata = call_ollama(args.endpoint, args.model, prompt, args.timeout, args.num_ctx, args.num_predict)
successful_calls += 1
except Exception as exc: # one recorded attempt; never retry
technical_failures += 1
failure = {"case_id": case["case_id"], "classification": "FAIL", "technical_failure": True, "error_type": type(exc).__name__, "error": str(exc)}
_write_json(case_dir / "ollama_metadata.json", {"model": args.model, "configuration": {"temperature": 0, "think": False, "num_ctx": args.num_ctx, "num_predict": args.num_predict, "retries": 0}, "technical_failure": failure})
_write_json(case_dir / "structural_validation.json", {"valid": False, "error": str(exc)})
_write_json(case_dir / "evaluation.json", failure)
evaluations.append(failure)
continue
(case_dir / "raw_model_response.txt").write_text(raw + "\n", encoding="utf-8")
_write_json(case_dir / "ollama_metadata.json", metadata)
try:
parsed = parse_model_json(raw)
_write_json(case_dir / "parsed_semantic_classification.json", parsed)
evaluation = evaluate_case(case, parsed)
validation = {"valid": True, "error": None}
except (DerivationValidationError, json.JSONDecodeError) as exc:
validation = {"valid": False, "error_type": type(exc).__name__, "error": str(exc)}
evaluation = {"case_id": case["case_id"], "classification": "FAIL", "error": str(exc), "normative_leakage": "forbidden" in str(exc)}
_write_json(case_dir / "structural_validation.json", validation)
_write_json(case_dir / "evaluation.json", evaluation)
evaluations.append(evaluation)
summary = {
"experiment": "negative_act_form_v0", "model": args.model,
"successful_llm_call_count": successful_calls,
"technical_failed_call_count": technical_failures,
"runtime_seconds": round(time.perf_counter() - started, 3),
"counts": {label: sum(item["classification"] == label for item in evaluations) for label in ("PASS", "PARTIAL", "FAIL")},
"evaluations": evaluations,
}
_write_json(args.output / "summary.json", summary)
return summary
def parse_args() -> argparse.Namespace:
parser = argparse.ArgumentParser(description="Run isolated Negative Act Form experiment")
parser.add_argument("cases", type=Path)
parser.add_argument("-o", "--output", type=Path, required=True)
parser.add_argument("--model", default=DEFAULT_MODEL)
parser.add_argument("--endpoint", default=DEFAULT_ENDPOINT)
parser.add_argument("--timeout", type=int, default=300)
parser.add_argument("--num-ctx", type=int, default=16384)
parser.add_argument("--num-predict", type=int, default=1024)
return parser.parse_args()
def main() -> int:
summary = run_experiment(parse_args())
print(json.dumps(summary, ensure_ascii=False, indent=2))
return 0 if summary["counts"]["FAIL"] == 0 and summary["technical_failed_call_count"] == 0 else 1
if __name__ == "__main__":
raise SystemExit(main())
@@ -0,0 +1,347 @@
#!/usr/bin/env python3
"""Isolated explicit-action-rejection Gold reliability experiment."""
from __future__ import annotations
import argparse
import json
import time
from pathlib import Path
from typing import Any
from .experiment_h import (
DEFAULT_ENDPOINT,
DEFAULT_MODEL,
DerivationValidationError,
OBSERVATION_KEYS,
call_ollama,
)
GOLD_SCHEMA_VERSION = "experimental-explicit-rejection-gold-v0"
RECOGNITION_KEYS = {
"rejection_observation_id", "target_observation_id", "rejection_form",
"normalized_rejected_action_text",
}
REJECTION_FORMS = {"explicit_action_rejection", "none"}
FORBIDDEN_LLM_KEYS = {
"decision", "decision_status", "outcome", "topic_status", "closed",
"agreement", "responsible_person", "responsibility", "responsibility_scope",
"owner", "ownership", "assignee", "requested_actor", "status",
"explicitly_rejected", "action_item", "protocol", "protocol_category",
"confidence", "relation", "relations", "graph", "unresolved_issue",
}
PROMPT_TEMPLATE = """Recognize only whether the candidate rejection observation explicitly rejects a concrete action, option, proposal, or future course of action in this small local set of V3-style observations.
Answer only:
1. Does the candidate rejection observation explicitly reject, abandon, discontinue, or rule out a concrete action, option, proposal, or future course of action?
2. If yes, which supplied observation identifies the rejected target?
3. What is the concise normalized meaning of the rejected action or option?
The candidate rejection observation is {rejection_observation_id}.
Use explicit_action_rejection only for an asserted rejection, abandonment, discontinuation, or non-pursuit with a concrete locally resolvable target. Personal preference is not meeting-level explicit rejection. Concern or objection without refusal is not rejection. Uncertainty is not rejection. Negative recommendation or advice is not established rejection. Deferral is not rejection. "Not yet" or temporary non-action is not abandonment. Factual negation is not action rejection. Lack of commitment is not rejection.
The rejected target may be self-contained in the candidate observation or introduced by one earlier supplied observation. Choose only among supplied observation IDs. If the target is ambiguous or unresolved, return rejection_form none. Preserve material scope limitations in normalized_rejected_action_text. Ignore a separate positive alternative when describing the rejected target. Keep normalized text in the observation language.
Do not infer responsibility, ownership, decision status, final outcome, topic closure, protocol status, confidence, relations, graphs, or unresolved issues. Do not answer whether this was finally decided, what the meeting outcome was, who is responsible, or whether the topic is closed.
Return exactly this JSON shape and no additional fields:
{{
"rejection_observation_id": "{rejection_observation_id}",
"target_observation_id": "supplied observation ID" | null,
"rejection_form": "explicit_action_rejection | none",
"normalized_rejected_action_text": "concise rejected target" | null
}}
For rejection_form none, target_observation_id and normalized_rejected_action_text must both be null.
V3-style observations:
{observations_json}
"""
def _exact_keys(value: dict[str, Any], required: set[str], location: str) -> None:
missing = required - value.keys()
unknown = value.keys() - required
if missing:
raise DerivationValidationError(f"{location} missing required keys: {sorted(missing)}")
if unknown:
raise DerivationValidationError(f"{location} has unknown keys: {sorted(unknown)}")
def _nonempty_text(value: Any, location: str) -> str:
if not isinstance(value, str) or not value.strip():
raise DerivationValidationError(f"{location} must be a non-empty string")
return value.strip()
def _validate_observations(observations: Any) -> None:
if not isinstance(observations, list) or not observations:
raise DerivationValidationError("observations must be a non-empty list")
seen_observations: set[str] = set()
seen_evidence: set[str] = set()
for index, observation in enumerate(observations):
location = f"observations[{index}]"
if not isinstance(observation, dict):
raise DerivationValidationError(f"{location} must be an object")
_exact_keys(observation, OBSERVATION_KEYS, location)
observation_id = _nonempty_text(observation["observation_id"], f"{location}.observation_id")
evidence_id = _nonempty_text(observation["evidence_id"], f"{location}.evidence_id")
if observation_id in seen_observations:
raise DerivationValidationError("observation IDs must be unique")
if evidence_id in seen_evidence:
raise DerivationValidationError("evidence provenance must be unique and consistent")
seen_observations.add(observation_id)
seen_evidence.add(evidence_id)
_nonempty_text(observation["content"], f"{location}.content")
_nonempty_text(observation["speaker"], f"{location}.speaker")
for field in ("named_person", "addressee"):
if observation[field] is not None:
_nonempty_text(observation[field], f"{location}.{field}")
def load_gold_cases(path: Path) -> list[dict[str, Any]]:
data = json.loads(path.read_text(encoding="utf-8-sig"))
if not isinstance(data, dict):
raise DerivationValidationError("Gold fixture must be an object")
_exact_keys(data, {"schema_version", "cases"}, "Gold fixture")
if data["schema_version"] != GOLD_SCHEMA_VERSION:
raise DerivationValidationError("unexpected Gold fixture schema_version")
cases = data["cases"]
if not isinstance(cases, list) or not cases:
raise DerivationValidationError("Gold fixture cases must be a non-empty list")
seen: set[str] = set()
for case in cases:
_exact_keys(case, {"case_id", "description", "observations", "expected_recognition", "expected_result"}, "Gold case")
case_id = _nonempty_text(case["case_id"], "Gold case.case_id")
if case_id in seen:
raise DerivationValidationError(f"duplicate case ID: {case_id}")
seen.add(case_id)
_validate_observations(case["observations"])
if len(case["observations"]) not in (1, 2):
raise DerivationValidationError("rejection Gold cases require one or two observations")
return cases
def build_prompt(case: dict[str, Any]) -> str:
observations = case["observations"]
_validate_observations(observations)
rejection_observation_id = observations[-1]["observation_id"]
return PROMPT_TEMPLATE.format(
rejection_observation_id=rejection_observation_id,
observations_json=json.dumps(observations, ensure_ascii=False, indent=2),
)
def parse_model_json(raw_text: str) -> dict[str, Any]:
data = json.loads(raw_text)
if not isinstance(data, dict):
raise DerivationValidationError("semantic recognition must be an object")
return data
def _reject_forbidden_keys(value: Any, location: str = "output") -> None:
if isinstance(value, dict):
forbidden = FORBIDDEN_LLM_KEYS.intersection(value)
if forbidden:
raise DerivationValidationError(f"{location} contains forbidden semantic keys: {sorted(forbidden)}")
for key, item in value.items():
_reject_forbidden_keys(item, f"{location}.{key}")
elif isinstance(value, list):
for index, item in enumerate(value):
_reject_forbidden_keys(item, f"{location}[{index}]")
def validate_recognition(data: Any, observations: list[dict[str, Any]]) -> dict[str, Any]:
_validate_observations(observations)
if not isinstance(data, dict):
raise DerivationValidationError("semantic recognition must be an object")
_reject_forbidden_keys(data)
_exact_keys(data, RECOGNITION_KEYS, "output")
rejection_id = _nonempty_text(data["rejection_observation_id"], "output.rejection_observation_id")
known_ids = {item["observation_id"] for item in observations}
if rejection_id not in known_ids:
raise DerivationValidationError("unknown rejection observation ID")
form = data["rejection_form"]
if form not in REJECTION_FORMS:
raise DerivationValidationError("rejection_form has an unsupported value")
target_id = data["target_observation_id"]
action_text = data["normalized_rejected_action_text"]
if form == "none":
if target_id is not None:
raise DerivationValidationError("none rejection must have null target_observation_id")
if action_text is not None:
raise DerivationValidationError("none rejection must have null normalized_rejected_action_text")
else:
target_id = _nonempty_text(target_id, "output.target_observation_id")
if target_id not in known_ids:
raise DerivationValidationError("unknown target observation ID")
_nonempty_text(action_text, "output.normalized_rejected_action_text")
return data
def derive_rejection(
observations: list[dict[str, Any]], recognition: dict[str, Any]
) -> tuple[dict[str, bool], dict[str, Any] | None]:
validate_recognition(recognition, observations)
by_id = {item["observation_id"]: item for item in observations}
positions = {item["observation_id"]: index for index, item in enumerate(observations)}
rejection = by_id.get(recognition["rejection_observation_id"])
target_id = recognition["target_observation_id"]
target = by_id.get(target_id) if target_id is not None else None
gates = {
"recognition_schema_valid": True,
"explicit_action_rejection": recognition["rejection_form"] == "explicit_action_rejection",
"rejection_observation_exists": rejection is not None,
"target_observation_exists": target is not None,
"observation_ids_valid_and_unique": len(by_id) == len(observations),
"evidence_provenance_valid_unique_consistent": len({item["evidence_id"] for item in observations}) == len(observations),
"target_same_or_before_rejection": target is not None and rejection is not None and positions[target["observation_id"]] <= positions[rejection["observation_id"]],
"normalized_rejected_action_present": isinstance(recognition["normalized_rejected_action_text"], str) and bool(recognition["normalized_rejected_action_text"].strip()),
"target_local_to_case": target_id in by_id if target_id is not None else False,
"schema_state_consistent": recognition["rejection_form"] == "explicit_action_rejection" and target_id is not None,
"referenced_provenance_available": target is not None and rejection is not None and bool(target["evidence_id"]) and bool(rejection["evidence_id"]),
}
if not all(gates.values()):
return gates, None
return gates, {
"rejection_id": "rejection_1",
"content": recognition["normalized_rejected_action_text"].strip(),
"status": "explicitly_rejected",
"support": {
"target": {"observation_id": target["observation_id"], "evidence_id": target["evidence_id"]},
"rejection": {"observation_id": rejection["observation_id"], "evidence_id": rejection["evidence_id"]},
},
}
def _concepts_present(text: str | None, concepts: list[list[str]]) -> bool:
if not concepts:
return True
if not isinstance(text, str):
return False
folded = text.casefold()
return all(any(alias.casefold() in folded for alias in alternatives) for alternatives in concepts)
def _contains_forbidden_concept(text: str | None, concepts: list[str]) -> bool:
return isinstance(text, str) and any(concept.casefold() in text.casefold() for concept in concepts)
def evaluate_case(case: dict[str, Any], recognition: dict[str, Any]) -> dict[str, Any]:
validate_recognition(recognition, case["observations"])
gates, result = derive_rejection(case["observations"], recognition)
expected = case["expected_recognition"]
expected_result = case["expected_result"]
form_correct = recognition["rejection_form"] == expected["rejection_form"]
rejection_observation_correct = recognition["rejection_observation_id"] == expected["rejection_observation_id"]
target_correct = recognition["target_observation_id"] == expected["target_observation_id"]
action_correct = _concepts_present(recognition["normalized_rejected_action_text"], expected["action_concepts"])
qualifier_preserved = _concepts_present(recognition["normalized_rejected_action_text"], expected["qualifier_concepts"])
alternative_absorbed = _contains_forbidden_concept(recognition["normalized_rejected_action_text"], expected["forbidden_action_concepts"])
derived = result is not None
final_correct = derived == expected_result["explicitly_rejected"]
if result is not None:
final_correct = final_correct and result["status"] == "explicitly_rejected"
semantic_correct = form_correct and rejection_observation_correct and target_correct and action_correct and qualifier_preserved and not alternative_absorbed
automatic_failure = (derived and not expected_result["explicitly_rejected"]) or (derived and not target_correct) or (derived and not qualifier_preserved) or alternative_absorbed
classification = "FAIL" if automatic_failure or not final_correct else ("PASS" if semantic_correct else "PARTIAL")
return {
"case_id": case["case_id"], "classification": classification,
"rejection_form_correct": form_correct,
"rejection_observation_correct": rejection_observation_correct,
"target_observation_correct": target_correct,
"normalized_rejected_action_correct": action_correct,
"material_qualifiers_preserved": qualifier_preserved,
"positive_alternative_absorbed": alternative_absorbed,
"deterministic_gates_correct": final_correct,
"final_result_correct": final_correct,
"unsupported_semantic_strengthening": recognition["rejection_form"] == "explicit_action_rejection" and expected["rejection_form"] == "none",
"normative_leakage": False,
"gates": gates, "result": result,
}
def _write_json(path: Path, value: Any) -> None:
path.write_text(json.dumps(value, ensure_ascii=False, indent=2) + "\n", encoding="utf-8")
def run_gold(args: argparse.Namespace) -> dict[str, Any]:
cases = load_gold_cases(args.cases)
args.output.mkdir(parents=True, exist_ok=False)
_write_json(args.output / "gold_cases.json", {"schema_version": GOLD_SCHEMA_VERSION, "cases": cases})
evaluations: list[dict[str, Any]] = []
successful_calls = 0
technical_failures = 0
started = time.perf_counter()
for case in cases:
case_dir = args.output / case["case_id"].lower()
case_dir.mkdir()
observations = case["observations"]
_write_json(case_dir / "v3_style_input_observations.json", observations)
prompt = build_prompt(case)
(case_dir / "prompt.txt").write_text(prompt, encoding="utf-8")
try:
raw, metadata = call_ollama(args.endpoint, args.model, prompt, args.timeout, args.num_ctx, args.num_predict)
successful_calls += 1
except Exception as exc: # one recorded attempt; never retry
technical_failures += 1
failure = {"case_id": case["case_id"], "classification": "FAIL", "technical_failure": True, "error_type": type(exc).__name__, "error": str(exc)}
_write_json(case_dir / "ollama_metadata.json", {"model": args.model, "configuration": {"temperature": 0, "think": False, "num_ctx": args.num_ctx, "num_predict": args.num_predict, "retries": 0}, "technical_failure": failure})
_write_json(case_dir / "structural_validation.json", {"valid": False, "error": str(exc)})
_write_json(case_dir / "deterministic_gate_results.json", {})
_write_json(case_dir / "final_derived_result.json", None)
_write_json(case_dir / "evaluation.json", failure)
evaluations.append(failure)
continue
(case_dir / "raw_model_response.txt").write_text(raw + "\n", encoding="utf-8")
_write_json(case_dir / "ollama_metadata.json", metadata)
try:
parsed = parse_model_json(raw)
_write_json(case_dir / "parsed_semantic_recognition.json", parsed)
evaluation = evaluate_case(case, parsed)
validation = {"valid": True, "error": None}
gates, result = derive_rejection(observations, parsed)
except (DerivationValidationError, json.JSONDecodeError) as exc:
validation = {"valid": False, "error_type": type(exc).__name__, "error": str(exc)}
evaluation = {"case_id": case["case_id"], "classification": "FAIL", "error": str(exc), "normative_leakage": "forbidden" in str(exc)}
gates, result = {}, None
_write_json(case_dir / "structural_validation.json", validation)
_write_json(case_dir / "deterministic_gate_results.json", gates)
_write_json(case_dir / "final_derived_result.json", result)
_write_json(case_dir / "evaluation.json", evaluation)
evaluations.append(evaluation)
summary = {
"experiment": "explicit_rejection_gold_v0", "model": args.model,
"successful_llm_call_count": successful_calls,
"technical_failed_call_count": technical_failures,
"runtime_seconds": round(time.perf_counter() - started, 3),
"counts": {label: sum(item["classification"] == label for item in evaluations) for label in ("PASS", "PARTIAL", "FAIL")},
"evaluations": evaluations,
}
_write_json(args.output / "summary.json", summary)
return summary
def parse_args() -> argparse.Namespace:
parser = argparse.ArgumentParser(description="Run isolated explicit-rejection Gold experiment")
parser.add_argument("cases", type=Path)
parser.add_argument("-o", "--output", type=Path, required=True)
parser.add_argument("--model", default=DEFAULT_MODEL)
parser.add_argument("--endpoint", default=DEFAULT_ENDPOINT)
parser.add_argument("--timeout", type=int, default=300)
parser.add_argument("--num-ctx", type=int, default=16384)
parser.add_argument("--num-predict", type=int, default=1024)
return parser.parse_args()
def main() -> int:
summary = run_gold(parse_args())
print(json.dumps(summary, ensure_ascii=False, indent=2))
return 0 if summary["counts"]["FAIL"] == 0 and summary["technical_failed_call_count"] == 0 else 1
if __name__ == "__main__":
raise SystemExit(main())
@@ -0,0 +1,100 @@
#!/usr/bin/env python3
"""Isolated controlled rejection derivation V1 experiment."""
from __future__ import annotations
import argparse, json, time
from pathlib import Path
from typing import Any
from .experiment_h import DEFAULT_ENDPOINT, DEFAULT_MODEL, DerivationValidationError, OBSERVATION_KEYS, call_ollama
from .experiment_negative_act import build_prompt as build_negative_prompt, parse_model_json, validate_classification
SCHEMA_VERSION="experimental-controlled-rejection-v1"
TARGET_KEYS={"candidate_observation_id","target_observation_id","normalized_target_text"}
FORBIDDEN={"rejection_form","negative_act_form","explicitly_rejected","status","decision","outcome","topic_status","closed","responsible_person","responsibility","owner","requested_actor","action_item","protocol_category","confidence","relation","relations","graph","unresolved_issue"}
PROMPT="""Resolve only the concrete local action or option referred to by the candidate negative act. The candidate is {candidate}. Choose only a supplied observation ID. Use the same observation for a self-contained target. If no unique local target exists, return null for both target fields. Preserve source-language meaning and material scope such as purpose and location. Preserve continuation when non-pursuit concerns continuing something. Ignore any separate positive alternative. Do not classify the negative act and do not output rejection, status, decision, outcome, responsibility, protocol concepts, confidence, relations, or graphs. Return exactly JSON with candidate_observation_id, target_observation_id, normalized_target_text and no other fields.\nObservations:\n{observations}"""
def _keys(v,r,loc):
if not isinstance(v,dict): raise DerivationValidationError(f"{loc} must be an object")
if set(v)!=r: raise DerivationValidationError(f"{loc} keys invalid: missing={sorted(r-set(v))}, unknown={sorted(set(v)-r)}")
def _text(v,loc):
if not isinstance(v,str) or not v.strip(): raise DerivationValidationError(f"{loc} must be non-empty")
return v.strip()
def _forbidden(v,loc="output"):
if isinstance(v,dict):
bad=FORBIDDEN & set(v)
if bad: raise DerivationValidationError(f"{loc} contains forbidden fields: {sorted(bad)}")
for k,x in v.items(): _forbidden(x,f"{loc}.{k}")
elif isinstance(v,list):
for i,x in enumerate(v): _forbidden(x,f"{loc}[{i}]")
def validate_observations(obs):
if not isinstance(obs,list) or not obs: raise DerivationValidationError("observations must be non-empty")
ids=set(); evid=set()
for i,o in enumerate(obs):
_keys(o,OBSERVATION_KEYS,f"observations[{i}]"); oid=_text(o["observation_id"],"observation_id"); eid=_text(o["evidence_id"],"evidence_id")
if oid in ids or eid in evid: raise DerivationValidationError("provenance must be unique")
ids.add(oid); evid.add(eid); _text(o["content"],"content"); _text(o["speaker"],"speaker")
return ids
def validate_target(data,obs):
ids=validate_observations(obs); _forbidden(data); _keys(data,TARGET_KEYS,"target output")
candidate=_text(data["candidate_observation_id"],"candidate_observation_id")
if candidate not in ids: raise DerivationValidationError("unknown candidate observation")
target=data["target_observation_id"]; normalized=data["normalized_target_text"]
if target is None:
if normalized is not None: raise DerivationValidationError("null target requires null text")
else:
target=_text(target,"target_observation_id")
if target not in ids: raise DerivationValidationError("unknown target observation")
_text(normalized,"normalized_target_text")
return data
def build_target_prompt(case):
validate_observations(case["observations"])
return PROMPT.format(candidate=case["expected"]["candidate_observation_id"],observations=json.dumps(case["observations"],ensure_ascii=False,indent=2))
def derive(obs,negative,target):
ids=validate_observations(obs); validate_classification(negative,obs); validate_target(target,obs)
candidate=negative["observation_id"]
if target["candidate_observation_id"]!=candidate: raise DerivationValidationError("candidate outputs disagree")
positions={o["observation_id"]:i for i,o in enumerate(obs)}; tid=target["target_observation_id"]
gates={"negative_act_valid":True,"eligible_explicit_non_pursuit":negative["negative_act_form"]=="explicit_non_pursuit","candidate_exists":candidate in ids,"target_valid":True,"target_present":tid is not None,"target_exists":tid in ids if tid else False,"target_not_after_candidate":positions[tid]<=positions[candidate] if tid else False,"provenance_valid_unique":True,"normalized_target_nonempty":bool(target["normalized_target_text"] and target["normalized_target_text"].strip()),"same_isolated_case":tid in ids if tid else False,"no_forbidden_fields":True}
established=all(gates.values())
result=None
if established:
byid={o["observation_id"]:o for o in obs}
result={"rejection_id":"rejection_1","content":target["normalized_target_text"].strip(),"status":"explicitly_rejected","support":{"target":{"observation_id":tid,"evidence_id":byid[tid]["evidence_id"]},"negative_act":{"observation_id":candidate,"evidence_id":byid[candidate]["evidence_id"]}}}
return {"gates":gates,"derived_result":result}
def load_cases(path):
data=json.loads(path.read_text(encoding="utf-8")); _keys(data,{"schema_version","cases"},"fixture")
if data["schema_version"]!=SCHEMA_VERSION: raise DerivationValidationError("wrong schema version")
return data["cases"]
def _concepts(text,groups):
folded=(text or "").casefold(); return all(any(x.casefold() in folded for x in g) for g in groups)
def evaluate(case,negative,target,derivation):
e=case["expected"]; text=target["normalized_target_text"]
form=negative["negative_act_form"]==e["negative_act_form"]; target_ok=target["target_observation_id"]==e["target_observation_id"]
action=_concepts(text,e["action_concepts"]); material=_concepts(text,e["material_concepts"]); forbidden=any(x.casefold() in (text or "").casefold() for x in e["forbidden_concepts"])
final=(derivation["derived_result"] is not None)==e["explicitly_rejected"]
label="PASS" if form and target_ok and action and material and not forbidden and final else ("PARTIAL" if form and target_ok and material and not forbidden and final else "FAIL")
return {"case_id":case["case_id"],"classification":label,"expected_negative_act_form":e["negative_act_form"],"actual_negative_act_form":negative["negative_act_form"],"expected_target_observation_id":e["target_observation_id"],"actual_target_observation_id":target["target_observation_id"],"normalized_target_text":text,"normalized_action_correct":action,"material_scope_preserved":material,"alternative_absorbed":forbidden,"final_rejection_correct":final}
def _write(p,v): p.write_text(json.dumps(v,ensure_ascii=False,indent=2)+"\n",encoding="utf-8")
def run(args):
cases=load_cases(args.cases); args.output.mkdir(parents=True,exist_ok=False); _write(args.output/"gold_cases.json",{"schema_version":SCHEMA_VERSION,"cases":cases})
evals=[]; naf_calls=target_calls=technical_failures=structural_failures=0; start=time.perf_counter()
for case in cases:
d=args.output/case["case_id"].lower(); d.mkdir(); obs=case["observations"]; _write(d/"v3_style_input_observations.json",obs)
try:
source=case["negative_act_source"]
if source=="live":
np=build_negative_prompt(case); (d/"negative_act_prompt.txt").write_text(np,encoding="utf-8"); raw,nmeta=call_ollama(args.endpoint,args.model,np,args.timeout,args.num_ctx,args.num_predict); naf_calls+=1; (d/"negative_act_raw_response.txt").write_text(raw+"\n",encoding="utf-8"); negative=parse_model_json(raw)
_write(d/"negative_act_ollama_metadata.json",nmeta); _write(d/"negative_act_source.json",{"kind":"live_call"})
else:
sd=args.negative_act_artifacts/source.lower(); accepted=json.loads((sd/"v3_style_input_observations.json").read_text());
if accepted!=obs: raise DerivationValidationError(f"{source} observations do not exactly match")
negative=json.loads((sd/"parsed_semantic_classification.json").read_text()); _write(d/"negative_act_source.json",{"kind":"accepted_artifact_reuse","case_id":source,"path":str(sd)})
validate_classification(negative,obs); _write(d/"negative_act_classification.json",negative)
tp=build_target_prompt(case); (d/"target_prompt.txt").write_text(tp,encoding="utf-8"); traw,tmeta=call_ollama(args.endpoint,args.model,tp,args.timeout,args.num_ctx,args.num_predict); target_calls+=1; (d/"target_raw_response.txt").write_text(traw+"\n",encoding="utf-8"); _write(d/"target_ollama_metadata.json",tmeta); target=parse_model_json(traw); _write(d/"target_recognition.json",target); validate_target(target,obs)
derivation=derive(obs,negative,target); _write(d/"deterministic_gate_results.json",derivation["gates"]); _write(d/"final_derived_result.json",derivation["derived_result"]); ev=evaluate(case,negative,target,derivation)
_write(d/"structural_validation.json",{"valid":True})
except Exception as exc:
structural_failures+=1; ev={"case_id":case["case_id"],"classification":"FAIL","technical_or_validation_failure":str(exc)}; _write(d/"structural_validation.json",{"valid":False,"error":str(exc)})
_write(d/"evaluation.json",ev); evals.append(ev)
summary={"experiment":"controlled_rejection_v1","model":args.model,"negative_act_llm_call_count":naf_calls,"reused_negative_act_count":len(cases)-naf_calls,"target_resolution_llm_call_count":target_calls,"technical_failed_call_count":technical_failures,"structural_validation_failure_count":structural_failures,"runtime_seconds":round(time.perf_counter()-start,3),"counts":{x:sum(e["classification"]==x for e in evals) for x in ["PASS","PARTIAL","FAIL"]},"evaluations":evals}; _write(args.output/"summary.json",summary); return summary
def main():
p=argparse.ArgumentParser(); p.add_argument("cases",type=Path); p.add_argument("-o","--output",type=Path,required=True); p.add_argument("--negative-act-artifacts",type=Path,default=Path("artifacts/experiments/negative_act_form_v0/20260820_qwen35_9b_single_run")); p.add_argument("--model",default=DEFAULT_MODEL); p.add_argument("--endpoint",default=DEFAULT_ENDPOINT); p.add_argument("--timeout",type=int,default=300); p.add_argument("--num-ctx",type=int,default=16384); p.add_argument("--num-predict",type=int,default=1024); args=p.parse_args(); print(json.dumps(run(args),ensure_ascii=False,indent=2)); return 0
@@ -0,0 +1,81 @@
#!/usr/bin/env python3
"""Target Normalization V0: reconstruct target text with fixed linkage."""
from __future__ import annotations
import argparse,json,time
from pathlib import Path
from typing import Any,Callable
import requests
from .experiment_h import DEFAULT_ENDPOINT,DEFAULT_MODEL,DerivationValidationError,OBSERVATION_KEYS
SCHEMA_VERSION="experimental-target-normalization-v0"
OUTPUT_KEYS={"candidate_observation_id","target_observation_id","normalized_target_text"}
LINK_KEYS={"candidate_observation_id","target_observation_id"}
FORBIDDEN={"negative_act_form","rejection_form","explicitly_rejected","status","decision","outcome","topic_status","responsible_person","responsibility","owner","requested_actor","action_item","protocol_category","confidence","relation","relations","graph","unresolved_issue"}
PROMPT="""The candidate and target observation IDs below are already resolved. Copy both IDs exactly; do not perform target selection. Reconstruct only the concrete POSITIVE action or option meaning targeted by the negative act. Remove rejection and negation polarity while preserving the underlying positive action. Preserve German source language, material qualifiers, purpose, location, named people, and continuation. Exclude separate positive alternatives. Do not summarize the discussion or infer rejection, decision, outcome, status, responsibility, ownership, protocol relevance, confidence, relations, graphs, or topic state. Return only the JSON-Schema-conforming object; null is not permitted.\n\nExample A observations: [{{"observation_id":"obs_a","content":"Mit Frau Beispiel arbeiten wir nicht weiter."}}]\nFixed IDs: candidate=obs_a, target=obs_a\nOutput: {{"candidate_observation_id":"obs_a","target_observation_id":"obs_a","normalized_target_text":"Zusammenarbeit mit Frau Beispiel fortsetzen"}}\n\nExample B observations: [{{"observation_id":"obs_a","content":"Für den Druckversuch steht die reale Anlage zur Diskussion."}},{{"observation_id":"obs_b","content":"Die reale Anlage nutzen wir dafür nicht."}}]\nFixed IDs: candidate=obs_b, target=obs_a\nOutput: {{"candidate_observation_id":"obs_b","target_observation_id":"obs_a","normalized_target_text":"reale Anlage für den Druckversuch nutzen"}}\n\nFixed candidate_observation_id: {candidate}\nFixed target_observation_id: {target}\nV3-style observations:\n{observations}"""
def _keys(value,required,where):
if not isinstance(value,dict): raise DerivationValidationError(f"{where} must be an object")
if set(value)!=required: raise DerivationValidationError(f"{where} keys invalid: missing={sorted(required-set(value))}, unknown={sorted(set(value)-required)}")
def _text(value,where):
if not isinstance(value,str) or not value.strip(): raise DerivationValidationError(f"{where} must be non-empty")
return value.strip()
def _reject_forbidden(value,where="output"):
if isinstance(value,dict):
bad=FORBIDDEN & set(value)
if bad: raise DerivationValidationError(f"{where} contains forbidden fields: {sorted(bad)}")
for key,item in value.items(): _reject_forbidden(item,f"{where}.{key}")
elif isinstance(value,list):
for index,item in enumerate(value): _reject_forbidden(item,f"{where}[{index}]")
def validate_observations(observations):
if not isinstance(observations,list) or not observations: raise DerivationValidationError("observations must be non-empty")
ids=set(); evidence=set()
for index,item in enumerate(observations):
_keys(item,OBSERVATION_KEYS,f"observations[{index}]"); oid=_text(item["observation_id"],"observation_id"); eid=_text(item["evidence_id"],"evidence_id")
if oid in ids or eid in evidence: raise DerivationValidationError("observation/evidence provenance must be unique")
ids.add(oid); evidence.add(eid); _text(item["content"],"content"); _text(item["speaker"],"speaker")
return ids
def validate_linkage(case):
ids=validate_observations(case["observations"]); linkage=case["fixed_linkage"]; _keys(linkage,LINK_KEYS,"fixed_linkage")
for field in LINK_KEYS:
if _text(linkage[field],field) not in ids: raise DerivationValidationError(f"{field} is unknown")
return linkage
def output_schema(case):
link=validate_linkage(case)
return {"type":"object","additionalProperties":False,"required":["candidate_observation_id","target_observation_id","normalized_target_text"],"properties":{"candidate_observation_id":{"const":link["candidate_observation_id"]},"target_observation_id":{"const":link["target_observation_id"]},"normalized_target_text":{"type":"string","minLength":1}}}
def build_prompt(case):
link=validate_linkage(case)
return PROMPT.format(candidate=link["candidate_observation_id"],target=link["target_observation_id"],observations=json.dumps(case["observations"],ensure_ascii=False,indent=2))
def validate_output(data,case):
_reject_forbidden(data); _keys(data,OUTPUT_KEYS,"output"); link=validate_linkage(case)
if data["candidate_observation_id"]!=link["candidate_observation_id"]: raise DerivationValidationError("candidate ID changed")
if data["target_observation_id"]!=link["target_observation_id"]: raise DerivationValidationError("target ID changed")
_text(data["normalized_target_text"],"normalized_target_text"); return data
def build_payload(model,prompt,schema,num_ctx,num_predict): return {"model":model,"prompt":prompt,"think":False,"stream":False,"format":schema,"options":{"temperature":0,"num_ctx":num_ctx,"num_predict":num_predict}}
def call_schema(endpoint,model,prompt,schema,timeout,num_ctx,num_predict):
started=time.perf_counter(); response=requests.post(endpoint,json=build_payload(model,prompt,schema,num_ctx,num_predict),timeout=timeout); elapsed=time.perf_counter()-started; response.raise_for_status(); body=response.json(); raw=body.get("response")
if not isinstance(raw,str) or not raw.strip(): raise ValueError("Ollama returned no usable response")
return raw.strip(),{"model":body.get("model",model),"elapsed_seconds":round(elapsed,3),"total_duration_ns":body.get("total_duration"),"prompt_eval_count":body.get("prompt_eval_count"),"eval_count":body.get("eval_count"),"configuration":{"temperature":0,"think":False,"format":"json_schema_object","num_ctx":num_ctx,"num_predict":num_predict,"retries":0}}
def _concepts(text,groups):
folded=text.casefold(); return all(any(alias.casefold() in folded for alias in group) for group in groups)
def evaluate(case,output):
validate_output(output,case); expected=case["expected"]; text=output["normalized_target_text"]; folded=text.casefold(); action=_concepts(text,expected["action_concepts"]); scope=_concepts(text,expected["material_concepts"]); forbidden=[x for x in expected["forbidden_concepts"] if x.casefold() in folded]; positive=not any(x in forbidden for x in ("nicht","beenden")); german=any(x.casefold() in folded for x in expected["german_markers"]); alternative=not any(x.casefold() in folded for x in ("technikum","stattdessen")); strengthening=False
label="PASS" if positive and action and scope and german and alternative and not forbidden and not strengthening else "FAIL"
return {"case_id":case["case_id"],"classification":label,"expected_normalized_target_text":expected["normalized_target_text"],"actual_normalized_target_text":text,"positive_polarity_correct":positive,"action_semantics_preserved":action,"material_scope_preserved":scope,"source_language_preserved":german,"separate_alternative_excluded":alternative,"forbidden_semantics_present":forbidden,"unsupported_strengthening":strengthening,"normative_leakage":False,"candidate_id_unchanged":True,"target_id_unchanged":True}
def load_cases(path):
data=json.loads(path.read_text(encoding="utf-8")); _keys(data,{"schema_version","cases"},"fixture")
if data["schema_version"]!=SCHEMA_VERSION: raise DerivationValidationError("wrong schema version")
for case in data["cases"]: validate_linkage(case)
return data["cases"]
def _write(path,value): path.write_text(json.dumps(value,ensure_ascii=False,indent=2)+"\n",encoding="utf-8")
def run(args,caller:Callable=call_schema):
cases=load_cases(args.cases); args.output.mkdir(parents=True,exist_ok=False); _write(args.output/"gold_cases.json",{"schema_version":SCHEMA_VERSION,"cases":cases}); evaluations=[]; calls=failures=0; started=time.perf_counter()
for case in cases:
folder=args.output/case["case_id"].lower(); folder.mkdir(); _write(folder/"v3_style_input_observations.json",case["observations"]); _write(folder/"fixed_linkage.json",case["fixed_linkage"]); schema=output_schema(case); _write(folder/"ollama_json_schema.json",schema); prompt=build_prompt(case); (folder/"prompt.txt").write_text(prompt,encoding="utf-8")
try:
raw,metadata=caller(args.endpoint,args.model,prompt,schema,args.timeout,args.num_ctx,args.num_predict); calls+=1; (folder/"raw_model_response.txt").write_text(raw+"\n",encoding="utf-8"); _write(folder/"ollama_metadata.json",metadata); parsed=json.loads(raw); _write(folder/"parsed_response.json",parsed); validate_output(parsed,case); _write(folder/"structural_validation.json",{"valid":True}); _write(folder/"normalized_target_result.json",{"normalized_target_text":parsed["normalized_target_text"]}); evaluation=evaluate(case,parsed)
except Exception as exc:
failures+=1; _write(folder/"structural_validation.json",{"valid":False,"error":str(exc)}); evaluation={"case_id":case["case_id"],"classification":"FAIL","error":str(exc),"normative_leakage":False}
_write(folder/"evaluation.json",evaluation); evaluations.append(evaluation)
summary={"experiment":"target_normalization_v0","model":args.model,"llm_call_count":calls,"structural_validation_failure_count":failures,"runtime_seconds":round(time.perf_counter()-started,3),"counts":{x:sum(e["classification"]==x for e in evaluations) for x in ["PASS","PARTIAL","FAIL"]},"evaluations":evaluations}; _write(args.output/"summary.json",summary); return summary
def main():
p=argparse.ArgumentParser(); p.add_argument("cases",type=Path); p.add_argument("-o","--output",type=Path,required=True); p.add_argument("--model",default=DEFAULT_MODEL); p.add_argument("--endpoint",default=DEFAULT_ENDPOINT); p.add_argument("--timeout",type=int,default=300); p.add_argument("--num-ctx",type=int,default=16384); p.add_argument("--num-predict",type=int,default=1024); print(json.dumps(run(p.parse_args()),ensure_ascii=False,indent=2)); return 0
@@ -0,0 +1,92 @@
#!/usr/bin/env python3
"""Isolated local target-resolution experiment; performs no rejection derivation."""
from __future__ import annotations
import argparse, json, time
from pathlib import Path
from typing import Any, Callable
from .experiment_h import DEFAULT_ENDPOINT, DEFAULT_MODEL, DerivationValidationError, OBSERVATION_KEYS, call_ollama
from .experiment_negative_act import validate_classification
SCHEMA_VERSION="experimental-target-resolution-v0"
TARGET_KEYS={"candidate_observation_id","target_observation_id","normalized_target_text"}
FORBIDDEN={"negative_act_form","rejection_form","explicitly_rejected","status","decision","outcome","topic_status","closed","responsible_person","responsibility","owner","requested_actor","action_item","protocol_category","confidence","relation","relations","graph","unresolved_issue"}
PROMPT="""Resolve and normalize only the concrete action or option referred to by the candidate negative act. Candidate: {candidate}. Strategy: {instruction} Choose only a supplied observation ID. If no unique local target exists, use JSON null for both target fields. Preserve German source meaning, continuation, purpose, location, and other material scope. Do not translate Anlage as asset. Ignore separate positive alternatives. Do not output negative-act form, rejection, status, decision, outcome, responsibility, topic closure, protocol concepts, confidence, relations, or graphs. Return exactly this JSON object with no additional fields: {{"candidate_observation_id":"{candidate}","target_observation_id":"observation ID or null","normalized_target_text":"concise positive action in German or null"}}\nObservations:\n{observations}"""
def _keys(v:Any, required:set[str], where:str):
if not isinstance(v,dict): raise DerivationValidationError(f"{where} must be an object")
if set(v)!=required: raise DerivationValidationError(f"{where} keys invalid: missing={sorted(required-set(v))}, unknown={sorted(set(v)-required)}")
def _text(v:Any, where:str):
if not isinstance(v,str) or not v.strip(): raise DerivationValidationError(f"{where} must be non-empty")
return v.strip()
def _reject_forbidden(v:Any, where="output"):
if isinstance(v,dict):
bad=FORBIDDEN & set(v)
if bad: raise DerivationValidationError(f"{where} contains forbidden fields: {sorted(bad)}")
for k,x in v.items(): _reject_forbidden(x,f"{where}.{k}")
elif isinstance(v,list):
for i,x in enumerate(v): _reject_forbidden(x,f"{where}[{i}]")
def validate_observations(obs):
if not isinstance(obs,list) or not obs: raise DerivationValidationError("observations must be non-empty")
ids=set(); evidence=set()
for i,o in enumerate(obs):
_keys(o,OBSERVATION_KEYS,f"observations[{i}]"); oid=_text(o["observation_id"],"observation_id"); eid=_text(o["evidence_id"],"evidence_id")
if oid in ids or eid in evidence: raise DerivationValidationError("observation/evidence provenance must be unique")
ids.add(oid); evidence.add(eid); _text(o["content"],"content"); _text(o["speaker"],"speaker")
return ids
def eligibility(negative,obs):
validate_classification(negative,obs)
eligible=negative["negative_act_form"]=="explicit_non_pursuit"
return {"eligible_for_target_resolution":eligible,"reason":None if eligible else "negative_act_form_not_explicit_non_pursuit"}
def validate_target(data,obs,candidate):
ids=validate_observations(obs); _reject_forbidden(data); _keys(data,TARGET_KEYS,"target output")
if _text(data["candidate_observation_id"],"candidate_observation_id")!=candidate: raise DerivationValidationError("candidate observation mismatch")
if candidate not in ids: raise DerivationValidationError("unknown candidate observation")
target=data["target_observation_id"]; normalized=data["normalized_target_text"]
if target is None:
if normalized is not None: raise DerivationValidationError("null target requires null text")
else:
target=_text(target,"target_observation_id")
if target not in ids: raise DerivationValidationError("unknown target observation")
if [o["observation_id"] for o in obs].index(target)>[o["observation_id"] for o in obs].index(candidate): raise DerivationValidationError("target must not occur after candidate")
_text(normalized,"normalized_target_text")
return data
def build_prompt(case):
gate=eligibility(case["negative_act"],case["observations"])
if not gate["eligible_for_target_resolution"]: raise DerivationValidationError("ineligible case must not build a target prompt")
candidate=case["negative_act"]["observation_id"]
instruction=(f"The target linkage is deterministically fixed to {candidate}; output that exact target ID and only normalize its positive action meaning." if case["strategy"]=="self_contained" else "Resolve the unique preceding local observation that supplies the referenced action.")
return PROMPT.format(candidate=candidate,instruction=instruction,observations=json.dumps(case["observations"],ensure_ascii=False,indent=2))
def _concepts(text,groups):
folded=(text or "").casefold(); return all(any(alias.casefold() in folded for alias in group) for group in groups)
def evaluate(case,gate,called,target):
e=case["expected"]; eligible=gate["eligible_for_target_resolution"]==e["eligible"]; call_ok=called==e["eligible"]
if not e["eligible"]:
label="PASS" if eligible and call_ok and target is None else "FAIL"
return {"case_id":case["case_id"],"classification":label,"negative_act_form":case["negative_act"]["negative_act_form"],"eligible":gate["eligible_for_target_resolution"],"target_resolution_call_made":called,"expected_target_observation_id":None,"actual_target_observation_id":None,"normalized_target_text":None,"material_scope_preserved":True,"alternative_isolation":True,"normative_leakage":False}
text=target["normalized_target_text"]; target_ok=target["target_observation_id"]==e["target_observation_id"]; concepts=_concepts(text,e["concepts"]); material=_concepts(text,e["material_concepts"]); isolated=not any(x.casefold() in (text or "").casefold() for x in e["forbidden_concepts"])
label="PASS" if eligible and call_ok and target_ok and concepts and material and isolated else ("PARTIAL" if eligible and call_ok and target_ok and material and isolated else "FAIL")
return {"case_id":case["case_id"],"classification":label,"negative_act_form":case["negative_act"]["negative_act_form"],"eligible":gate["eligible_for_target_resolution"],"target_resolution_call_made":called,"expected_target_observation_id":e["target_observation_id"],"actual_target_observation_id":target["target_observation_id"],"normalized_target_text":text,"normalized_action_correct":concepts,"material_scope_preserved":material,"alternative_isolation":isolated,"normative_leakage":False}
def load_cases(path):
data=json.loads(path.read_text(encoding="utf-8")); _keys(data,{"schema_version","cases"},"fixture")
if data["schema_version"]!=SCHEMA_VERSION: raise DerivationValidationError("unexpected schema version")
for case in data["cases"]: validate_observations(case["observations"]); validate_classification(case["negative_act"],case["observations"])
return data["cases"]
def _write(path,value): path.write_text(json.dumps(value,ensure_ascii=False,indent=2)+"\n",encoding="utf-8")
def run(args, resolver:Callable=call_ollama):
cases=load_cases(args.cases); args.output.mkdir(parents=True,exist_ok=False); _write(args.output/"gold_cases.json",{"schema_version":SCHEMA_VERSION,"cases":cases})
evaluations=[]; calls=technical_failures=structural_failures=0; started=time.perf_counter()
for case in cases:
folder=args.output/case["case_id"].lower(); folder.mkdir(); _write(folder/"v3_style_input_observations.json",case["observations"]); _write(folder/"negative_act_form.json",case["negative_act"])
gate=eligibility(case["negative_act"],case["observations"]); _write(folder/"eligibility.json",gate)
if not gate["eligible_for_target_resolution"]:
skipped={"call_made":False,"reason":gate["reason"]}; _write(folder/"target_resolution_skipped.json",skipped); ev=evaluate(case,gate,False,None)
else:
prompt=build_prompt(case); (folder/"prompt.txt").write_text(prompt,encoding="utf-8")
try:
raw,meta=resolver(args.endpoint,args.model,prompt,args.timeout,args.num_ctx,args.num_predict); calls+=1; (folder/"raw_model_response.txt").write_text(raw+"\n",encoding="utf-8"); _write(folder/"ollama_metadata.json",meta); parsed=json.loads(raw); _write(folder/"parsed_target_resolution.json",parsed); validate_target(parsed,case["observations"],case["negative_act"]["observation_id"]); _write(folder/"structural_validation.json",{"valid":True}); ev=evaluate(case,gate,True,parsed)
except Exception as exc:
structural_failures+=1; _write(folder/"structural_validation.json",{"valid":False,"error":str(exc)}); ev={"case_id":case["case_id"],"classification":"FAIL","negative_act_form":case["negative_act"]["negative_act_form"],"eligible":True,"target_resolution_call_made":True,"error":str(exc)}
_write(folder/"evaluation.json",ev); evaluations.append(ev)
summary={"experiment":"target_resolution_v0","model":args.model,"target_resolution_llm_call_count":calls,"technical_failed_call_count":technical_failures,"structural_validation_failure_count":structural_failures,"runtime_seconds":round(time.perf_counter()-started,3),"counts":{x:sum(e["classification"]==x for e in evaluations) for x in ["PASS","PARTIAL","FAIL"]},"evaluations":evaluations}; _write(args.output/"summary.json",summary); return summary
def main():
p=argparse.ArgumentParser(); p.add_argument("cases",type=Path); p.add_argument("-o","--output",type=Path,required=True); p.add_argument("--model",default=DEFAULT_MODEL); p.add_argument("--endpoint",default=DEFAULT_ENDPOINT); p.add_argument("--timeout",type=int,default=300); p.add_argument("--num-ctx",type=int,default=16384); p.add_argument("--num-predict",type=int,default=1024); print(json.dumps(run(p.parse_args()),ensure_ascii=False,indent=2)); return 0
@@ -0,0 +1,107 @@
#!/usr/bin/env python3
"""Target Resolution V1 diagnostic: linkage and normalization only."""
from __future__ import annotations
import argparse,json,time
from pathlib import Path
from typing import Any,Callable
import requests
from .experiment_h import DEFAULT_ENDPOINT,DEFAULT_MODEL,DerivationValidationError,OBSERVATION_KEYS
from .experiment_negative_act import validate_classification
SCHEMA_VERSION="experimental-target-resolution-v1-diagnostic"
SELF_KEYS={"candidate_observation_id","normalized_target_text"}; PAIRED_KEYS={"candidate_observation_id","target_observation_id","normalized_target_text"}
FORBIDDEN={"negative_act_form","rejection_form","explicitly_rejected","status","decision","outcome","responsible_person","responsibility","owner","requested_actor","action_item","protocol_category","confidence","relation","relations","graph","topic_status","closed","unresolved_issue"}
SELF_PROMPT="""Normalize only the concrete positive action meaning in the self-contained candidate observation. The target linkage is already deterministic and is not your task. Preserve German, collaboration, named people, and continuation meaning. Do not output a target ID, rejection, status, decision, outcome, responsibility, ownership, protocol concepts, confidence, relations, graphs, or topic closure. Return only the schema-conforming object.\nCandidate observation ID: {candidate}\nObservation:\n{observations}"""
PAIRED_PROMPT="""Resolve and normalize only the concrete local action or option referred to by the candidate negative act. Choose exactly one listed allowed target observation ID, or use JSON null only when no unique local target exists. Never return the string \"null\". Preserve German source language and all material purpose/location scope. Do not absorb a separate positive alternative. Do not output negative-act form, rejection, status, decision, outcome, responsibility, ownership, protocol concepts, confidence, relations, graphs, or topic closure.\nAllowed target observation IDs:\n{allowed}\nConcrete positive typed example:\n{{"candidate_observation_id":"obs_2","target_observation_id":"obs_1","normalized_target_text":"externe Lösung weiterverfolgen"}}\nActual JSON-null example:\n{{"candidate_observation_id":"obs_2","target_observation_id":null,"normalized_target_text":null}}\nReturn only the schema-conforming object.\nCandidate observation ID: {candidate}\nObservations:\n{observations}"""
def _keys(value,required,where):
if not isinstance(value,dict): raise DerivationValidationError(f"{where} must be an object")
if set(value)!=required: raise DerivationValidationError(f"{where} keys invalid: missing={sorted(required-set(value))}, unknown={sorted(set(value)-required)}")
def _text(value,where):
if not isinstance(value,str) or not value.strip(): raise DerivationValidationError(f"{where} must be non-empty")
return value.strip()
def _forbidden(value,where="output"):
if isinstance(value,dict):
bad=FORBIDDEN & set(value)
if bad: raise DerivationValidationError(f"{where} contains forbidden fields: {sorted(bad)}")
for key,item in value.items(): _forbidden(item,f"{where}.{key}")
elif isinstance(value,list):
for index,item in enumerate(value): _forbidden(item,f"{where}[{index}]")
def validate_observations(obs):
if not isinstance(obs,list) or not obs: raise DerivationValidationError("observations must be non-empty")
ids=[]; evidence=set()
for index,item in enumerate(obs):
_keys(item,OBSERVATION_KEYS,f"observations[{index}]"); oid=_text(item["observation_id"],"observation_id"); eid=_text(item["evidence_id"],"evidence_id")
if oid in ids or eid in evidence: raise DerivationValidationError("observation/evidence provenance must be unique")
ids.append(oid); evidence.add(eid); _text(item["content"],"content"); _text(item["speaker"],"speaker")
return ids
def allowed_ids(case): return validate_observations(case["observations"])
def deterministic_self_link(case):
if case["strategy"]!="self_contained": raise DerivationValidationError("self-linkage requires self-contained strategy")
ids=validate_observations(case["observations"]); candidate=case["negative_act"]["observation_id"]
if candidate not in ids: raise DerivationValidationError("unknown candidate")
return {"linkage_source":"deterministic","candidate_observation_id":candidate,"target_observation_id":candidate}
def output_schema(case):
candidate=case["negative_act"]["observation_id"]
if case["strategy"]=="self_contained":
return {"type":"object","additionalProperties":False,"required":["candidate_observation_id","normalized_target_text"],"properties":{"candidate_observation_id":{"const":candidate},"normalized_target_text":{"type":"string","minLength":1}}}
ids=allowed_ids(case)
return {"type":"object","additionalProperties":False,"required":["candidate_observation_id","target_observation_id","normalized_target_text"],"properties":{"candidate_observation_id":{"const":candidate},"target_observation_id":{"enum":ids+[None]},"normalized_target_text":{"type":["string","null"]}},"allOf":[{"if":{"properties":{"target_observation_id":{"type":"null"}}},"then":{"properties":{"normalized_target_text":{"type":"null"}}},"else":{"properties":{"normalized_target_text":{"type":"string","minLength":1}}}}]}
def build_prompt(case):
validate_classification(case["negative_act"],case["observations"]); candidate=case["negative_act"]["observation_id"]
if case["strategy"]=="self_contained": return SELF_PROMPT.format(candidate=candidate,observations=json.dumps(case["observations"],ensure_ascii=False,indent=2))
return PAIRED_PROMPT.format(candidate=candidate,allowed=json.dumps(allowed_ids(case),ensure_ascii=False),observations=json.dumps(case["observations"],ensure_ascii=False,indent=2))
def validate_semantic_output(data,case):
_forbidden(data); candidate=case["negative_act"]["observation_id"]
if case["strategy"]=="self_contained":
_keys(data,SELF_KEYS,"self output")
if data["candidate_observation_id"]!=candidate: raise DerivationValidationError("candidate mismatch")
_text(data["normalized_target_text"],"normalized_target_text")
else:
_keys(data,PAIRED_KEYS,"paired output")
if data["candidate_observation_id"]!=candidate: raise DerivationValidationError("candidate mismatch")
target=data["target_observation_id"]
if target=="null": raise DerivationValidationError('string "null" is forbidden')
if target is None:
if data["normalized_target_text"] is not None: raise DerivationValidationError("null target requires null text")
else:
if target not in allowed_ids(case): raise DerivationValidationError("target is not an allowed ID")
ids=allowed_ids(case)
if ids.index(target)>ids.index(candidate): raise DerivationValidationError("target must not occur after candidate")
_text(data["normalized_target_text"],"normalized_target_text")
return data
def combine(case,semantic):
validate_semantic_output(semantic,case)
if case["strategy"]=="self_contained":
link=deterministic_self_link(case); return {**link,"normalized_target_text":semantic["normalized_target_text"]}
return {"linkage_source":"llm","candidate_observation_id":semantic["candidate_observation_id"],"target_observation_id":semantic["target_observation_id"],"normalized_target_text":semantic["normalized_target_text"]}
def build_payload(model,prompt,schema,num_ctx,num_predict):
return {"model":model,"prompt":prompt,"think":False,"stream":False,"format":schema,"options":{"temperature":0,"num_ctx":num_ctx,"num_predict":num_predict}}
def call_schema(endpoint,model,prompt,schema,timeout,num_ctx,num_predict):
started=time.perf_counter(); response=requests.post(endpoint,json=build_payload(model,prompt,schema,num_ctx,num_predict),timeout=timeout); elapsed=time.perf_counter()-started; response.raise_for_status(); body=response.json(); raw=body.get("response")
if not isinstance(raw,str) or not raw.strip(): raise ValueError("Ollama returned no usable response")
meta={"model":body.get("model",model),"elapsed_seconds":round(elapsed,3),"total_duration_ns":body.get("total_duration"),"prompt_eval_count":body.get("prompt_eval_count"),"eval_count":body.get("eval_count"),"configuration":{"temperature":0,"think":False,"format":"json_schema_object","num_ctx":num_ctx,"num_predict":num_predict,"retries":0}}
return raw.strip(),meta
def _concepts(text,groups):
folded=(text or "").casefold(); return all(any(x.casefold() in folded for x in group) for group in groups)
def evaluate(case,semantic,combined):
expected=case["expected"]; text=combined["normalized_target_text"]; target=combined["target_observation_id"]; concepts=_concepts(text,expected["concepts"]); material=_concepts(text,expected["material_concepts"]); isolated=not any(x.casefold() in (text or "").casefold() for x in expected["forbidden_concepts"]); recurrence=semantic.get("target_observation_id")=="null"; correct=target==expected["target_observation_id"]
label="PASS" if correct and concepts and material and isolated and not recurrence else ("PARTIAL" if correct and material and isolated and not recurrence else "FAIL")
return {"case_id":case["case_id"],"classification":label,"strategy":case["strategy"],"target_id_decision_source":combined["linkage_source"],"expected_target_observation_id":expected["target_observation_id"],"actual_target_observation_id":target,"normalized_target_text":text,"continuation_or_action_preserved":concepts,"material_scope_preserved":material,"alternative_isolated":isolated,"schema_valid":True,"string_null_recurrence":recurrence,"normative_leakage":False}
def load_cases(path):
data=json.loads(path.read_text(encoding="utf-8")); _keys(data,{"schema_version","cases"},"fixture")
if data["schema_version"]!=SCHEMA_VERSION: raise DerivationValidationError("wrong schema version")
return data["cases"]
def _write(path,value): path.write_text(json.dumps(value,ensure_ascii=False,indent=2)+"\n",encoding="utf-8")
def run(args,caller:Callable=call_schema):
cases=load_cases(args.cases); args.output.mkdir(parents=True,exist_ok=False); _write(args.output/"gold_cases.json",{"schema_version":SCHEMA_VERSION,"cases":cases}); evaluations=[]; calls=failures=0; started=time.perf_counter()
for case in cases:
folder=args.output/case["case_id"].lower(); folder.mkdir(); _write(folder/"v3_style_input_observations.json",case["observations"]); _write(folder/"negative_act_form.json",case["negative_act"]); _write(folder/"eligibility.json",{"eligible_for_target_resolution":True,"reason":None}); _write(folder/"deterministic_strategy.json",{"strategy":case["strategy"],"target_id_decision_source":"deterministic" if case["strategy"]=="self_contained" else "llm"}); _write(folder/"allowed_target_ids.json",allowed_ids(case)); schema=output_schema(case); _write(folder/"ollama_json_schema.json",schema); prompt=build_prompt(case); (folder/"prompt.txt").write_text(prompt,encoding="utf-8")
try:
raw,meta=caller(args.endpoint,args.model,prompt,schema,args.timeout,args.num_ctx,args.num_predict); calls+=1; (folder/"raw_model_response.txt").write_text(raw+"\n",encoding="utf-8"); _write(folder/"ollama_metadata.json",meta); semantic=json.loads(raw); _write(folder/"parsed_semantic_output.json",semantic); validate_semantic_output(semantic,case); combined=combine(case,semantic); _write(folder/"structural_validation.json",{"valid":True}); _write(folder/"deterministic_linkage_result.json",{k:combined[k] for k in ("linkage_source","candidate_observation_id","target_observation_id")}); _write(folder/"normalized_target_result.json",{"normalized_target_text":combined["normalized_target_text"]}); evaluation=evaluate(case,semantic,combined)
except Exception as exc:
failures+=1; _write(folder/"structural_validation.json",{"valid":False,"error":str(exc)}); evaluation={"case_id":case["case_id"],"classification":"FAIL","strategy":case["strategy"],"schema_valid":False,"error":str(exc)}
_write(folder/"evaluation.json",evaluation); evaluations.append(evaluation)
summary={"experiment":"target_resolution_v1_diagnostic","model":args.model,"llm_call_count":calls,"structural_validation_failure_count":failures,"runtime_seconds":round(time.perf_counter()-started,3),"counts":{x:sum(e["classification"]==x for e in evaluations) for x in ["PASS","PARTIAL","FAIL"]},"evaluations":evaluations}; _write(args.output/"summary.json",summary); return summary
def main():
p=argparse.ArgumentParser(); p.add_argument("cases",type=Path); p.add_argument("-o","--output",type=Path,required=True); p.add_argument("--model",default=DEFAULT_MODEL); p.add_argument("--endpoint",default=DEFAULT_ENDPOINT); p.add_argument("--timeout",type=int,default=300); p.add_argument("--num-ctx",type=int,default=16384); p.add_argument("--num-predict",type=int,default=1024); print(json.dumps(run(p.parse_args()),ensure_ascii=False,indent=2)); return 0
@@ -0,0 +1,13 @@
{
"schema_version": "experimental-controlled-rejection-v1",
"cases": [
{"case_id":"CR-01","description":"self-contained non-pursuit","negative_act_source":"NA-01","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.","speaker":"Martin","named_person":"Dr. Schlummer","addressee":null}],"expected":{"negative_act_form":"explicit_non_pursuit","candidate_observation_id":"obs_1","target_observation_id":"obs_1","action_concepts":[["Schlummer"],["Zusammenarbeit","arbeiten"],["fortsetzen","weiter"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":true}},
{"case_id":"CR-02","description":"paired non-pursuit","negative_act_source":"live","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Eine Möglichkeit wäre, die externe Lösung weiterzuverfolgen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das verfolgen wir nicht weiter.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"explicit_non_pursuit","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["externe Lösung"],["weiterverfolgen","weiter verfolgen"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":true}},
{"case_id":"CR-03","description":"personal preference","negative_act_source":"NA-03","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die reale Anlage für den Versuch nutzen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Ich würde das nicht machen.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"personal_preference","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["reale Anlage"],["Versuch"],["nutzen"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":false}},
{"case_id":"CR-04","description":"recommendation","negative_act_source":"NA-04","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die reale Anlage verwenden.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Ich würde eher davon abraten.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"recommendation","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["reale Anlage"],["verwenden","nutzen"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":false}},
{"case_id":"CR-05","description":"temporary non-action","negative_act_source":"NA-05","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die Waschstufe einbauen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir erstmal noch nicht.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"temporary_non_action","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["Waschstufe"],["einbauen"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":false}},
{"case_id":"CR-06","description":"concern","negative_act_source":"NA-06","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten das neue Material einsetzen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das wäre kritisch.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"none","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["neue Material","neues Material"],["einsetzen"]],"material_concepts":[],"forbidden_concepts":[],"explicitly_rejected":false}},
{"case_id":"CR-07","description":"scoped explicit rejection","negative_act_source":"live","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Für den Druckversuch steht die reale Anlage zur Diskussion.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Die reale Anlage nutzen wir dafür nicht.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"explicit_non_pursuit","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["Anlage"],["nutzen"]],"material_concepts":[["real"],["Druckversuch"]],"forbidden_concepts":[],"explicitly_rejected":true}},
{"case_id":"CR-08","description":"rejection plus alternative","negative_act_source":"live","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten den Versuch in der realen Anlage durchführen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir nicht; wir testen stattdessen im Technikum.","speaker":"Martin","named_person":null,"addressee":null}],"expected":{"negative_act_form":"explicit_non_pursuit","candidate_observation_id":"obs_2","target_observation_id":"obs_1","action_concepts":[["Versuch"],["durchführen"]],"material_concepts":[["real"],["Anlage"]],"forbidden_concepts":["Technikum"],"explicitly_rejected":true}}
]
}
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@@ -0,0 +1,111 @@
{
"schema_version": "experimental-explicit-rejection-gold-v0",
"cases": [
{
"case_id": "RJ-01", "description": "Explicit collective rejection with local target",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die reale Anlage für den Versuch nutzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Nein, das machen wir nicht.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "explicit_action_rejection", "rejection_observation_id": "obs_2", "target_observation_id": "obs_1", "action_concepts": [["real"], ["anlage", "plant"], ["versuch", "trial", "test"]], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": true}
},
{
"case_id": "RJ-02", "description": "Explicit non-pursuit with paired target",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Eine Möglichkeit wäre, die externe Lösung weiterzuverfolgen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das verfolgen wir nicht weiter.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "explicit_action_rejection", "rejection_observation_id": "obs_2", "target_observation_id": "obs_1", "action_concepts": [["extern"], ["lösung", "solution"], ["weiter", "pursu", "continu"]], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": true}
},
{
"case_id": "RJ-03", "description": "Self-contained collaboration rejection",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.", "speaker": "Martin", "named_person": "Dr. Schlummer", "addressee": null}
],
"expected_recognition": {"rejection_form": "explicit_action_rejection", "rejection_observation_id": "obs_1", "target_observation_id": "obs_1", "action_concepts": [["schlummer"], ["arbeit", "collabor"], ["weiter", "fortsetz", "continu"]], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": true}
},
{
"case_id": "RJ-04", "description": "Personal preference",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die reale Anlage für den Versuch nutzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich würde das nicht machen.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-05", "description": "Concern",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten das neue Material einsetzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das wäre kritisch.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-06", "description": "Uncertainty",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Eine Möglichkeit wäre, die Waschstufe einzubauen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich weiß nicht, ob das sinnvoll ist.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-07", "description": "Negative recommendation",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die reale Anlage verwenden.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich würde eher davon abraten.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-08", "description": "Deferral",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die externe Lösung einsetzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das entscheiden wir nächste Woche.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-09", "description": "Factual negation",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Das Material ist nicht verfügbar.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_1", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-10", "description": "Temporary non-action",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die Waschstufe einbauen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das machen wir erstmal noch nicht.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "none", "rejection_observation_id": "obs_2", "target_observation_id": null, "action_concepts": [], "qualifier_concepts": [], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": false}
},
{
"case_id": "RJ-11", "description": "Explicit rejection with material scope",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Für den Druckversuch steht die reale Anlage zur Diskussion.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Die reale Anlage nutzen wir dafür nicht.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "explicit_action_rejection", "rejection_observation_id": "obs_2", "target_observation_id": "obs_1", "action_concepts": [["real"], ["anlage", "plant"]], "qualifier_concepts": [["druckversuch", "dafür", "pressure test"]], "forbidden_action_concepts": []},
"expected_result": {"explicitly_rejected": true}
},
{
"case_id": "RJ-12", "description": "Rejection plus positive alternative",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten den Versuch in der realen Anlage durchführen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das machen wir nicht; wir testen stattdessen im Technikum.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected_recognition": {"rejection_form": "explicit_action_rejection", "rejection_observation_id": "obs_2", "target_observation_id": "obs_1", "action_concepts": [["versuch", "trial", "test"], ["real"], ["anlage", "plant"]], "qualifier_concepts": [["real"], ["anlage", "plant"]], "forbidden_action_concepts": ["technikum", "technical facility", "technical center", "technical centre"]},
"expected_result": {"explicitly_rejected": true}
}
]
}
@@ -0,0 +1,66 @@
{
"schema_version": "experimental-negative-act-form-gold-v0",
"cases": [
{
"case_id": "NA-01", "description": "Explicit non-pursuit",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.", "speaker": "Martin", "named_person": "Dr. Schlummer", "addressee": null}
],
"expected": {"observation_id": "obs_1", "negative_act_form": "explicit_non_pursuit", "action_concepts": [["schlummer"], ["arbeit", "collabor"], ["weiter", "fortsetz", "continu"]]}
},
{
"case_id": "NA-02", "description": "Explicit non-pursuit paraphrase",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Die externe Lösung verfolgen wir nicht weiter.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_1", "negative_act_form": "explicit_non_pursuit", "action_concepts": [["extern"], ["lösung", "solution"], ["weiter", "pursu", "continu"]]}
},
{
"case_id": "NA-03", "description": "Personal preference with local context",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die reale Anlage für den Versuch nutzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich würde das nicht machen.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_2", "negative_act_form": "personal_preference", "action_concepts": [["real"], ["anlage", "plant"], ["versuch", "trial", "test"]]}
},
{
"case_id": "NA-04", "description": "Negative recommendation",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die reale Anlage verwenden.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich würde eher davon abraten.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_2", "negative_act_form": "recommendation", "action_concepts": [["real"], ["anlage", "plant"], ["verwend", "use"]]}
},
{
"case_id": "NA-05", "description": "Temporary non-action",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten die Waschstufe einbauen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das machen wir erstmal noch nicht.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_2", "negative_act_form": "temporary_non_action", "action_concepts": [["waschstufe", "washing stage"], ["einbau", "install"]]}
},
{
"case_id": "NA-06", "description": "Concern only",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Wir könnten das neue Material einsetzen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Das wäre kritisch.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_2", "negative_act_form": "none", "action_concepts": []}
},
{
"case_id": "NA-07", "description": "Uncertainty",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Eine Möglichkeit wäre, die Waschstufe einzubauen.", "speaker": "Martin", "named_person": null, "addressee": null},
{"observation_id": "obs_2", "evidence_id": "e2", "content": "Martin: Ich weiß nicht, ob das sinnvoll ist.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_2", "negative_act_form": "none", "action_concepts": []}
},
{
"case_id": "NA-08", "description": "Factual negation",
"observations": [
{"observation_id": "obs_1", "evidence_id": "e1", "content": "Martin: Das Material ist nicht verfügbar.", "speaker": "Martin", "named_person": null, "addressee": null}
],
"expected": {"observation_id": "obs_1", "negative_act_form": "none", "action_concepts": []}
}
]
}
@@ -0,0 +1,9 @@
{
"schema_version":"experimental-target-normalization-v0",
"cases":[
{"case_id":"TN-01","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.","speaker":"Martin","named_person":"Dr. Schlummer","addressee":null}],"fixed_linkage":{"candidate_observation_id":"obs_1","target_observation_id":"obs_1"},"expected":{"normalized_target_text":"Zusammenarbeit mit Dr. Schlummer fortsetzen","action_concepts":[["Zusammenarbeit","arbeiten"],["Schlummer"],["fortsetzen","weiter"]],"material_concepts":[],"forbidden_concepts":["nicht","beenden"],"german_markers":["Zusammenarbeit","arbeiten","fortsetzen"]}},
{"case_id":"TN-02","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Eine Möglichkeit wäre, die externe Lösung weiterzuverfolgen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das verfolgen wir nicht weiter.","speaker":"Martin","named_person":null,"addressee":null}],"fixed_linkage":{"candidate_observation_id":"obs_2","target_observation_id":"obs_1"},"expected":{"normalized_target_text":"externe Lösung weiterverfolgen","action_concepts":[["externe Lösung"],["weiterverfolgen","weiter verfolgen"]],"material_concepts":[],"forbidden_concepts":["nicht"],"german_markers":["Lösung","verfolgen"]}},
{"case_id":"TN-03","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Für den Druckversuch steht die reale Anlage zur Diskussion.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Die reale Anlage nutzen wir dafür nicht.","speaker":"Martin","named_person":null,"addressee":null}],"fixed_linkage":{"candidate_observation_id":"obs_2","target_observation_id":"obs_1"},"expected":{"normalized_target_text":"reale Anlage für den Druckversuch nutzen","action_concepts":[["Anlage"],["nutzen"]],"material_concepts":[["real"],["Druckversuch"]],"forbidden_concepts":["nicht","zur Diskussion"],"german_markers":["Anlage","Druckversuch","nutzen"]}},
{"case_id":"TN-04","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten den Versuch in der realen Anlage durchführen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir nicht; wir testen stattdessen im Technikum.","speaker":"Martin","named_person":null,"addressee":null}],"fixed_linkage":{"candidate_observation_id":"obs_2","target_observation_id":"obs_1"},"expected":{"normalized_target_text":"Versuch in der realen Anlage durchführen","action_concepts":[["Versuch"],["durchführen"]],"material_concepts":[["real"],["Anlage"]],"forbidden_concepts":["nicht","Technikum","stattdessen"],"german_markers":["Versuch","Anlage","durchführen"]}}
]
}
@@ -0,0 +1,13 @@
{
"schema_version": "experimental-target-resolution-v0",
"cases": [
{"case_id":"TR-01","description":"self-contained continuation target","strategy":"self_contained","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.","speaker":"Martin","named_person":"Dr. Schlummer","addressee":null}],"negative_act":{"observation_id":"obs_1","negative_act_form":"explicit_non_pursuit","normalized_action_text":"working with Dr. Schlummer"},"expected":{"eligible":true,"target_observation_id":"obs_1","concepts":[["Zusammenarbeit","arbeiten"],["Schlummer"],["fortsetzen","weiter"]],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR-02","description":"paired pronoun target","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Eine Möglichkeit wäre, die externe Lösung weiterzuverfolgen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das verfolgen wir nicht weiter.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"verfolgen wir nicht weiter"},"expected":{"eligible":true,"target_observation_id":"obs_1","concepts":[["externe Lösung"],["weiterverfolgen","weiter verfolgen"]],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR-03","description":"scoped location and purpose target","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Für den Druckversuch steht die reale Anlage zur Diskussion.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Die reale Anlage nutzen wir dafür nicht.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"reale Anlage dafür nicht nutzen"},"expected":{"eligible":true,"target_observation_id":"obs_1","concepts":[["Anlage"],["nutzen"]],"material_concepts":[["real"],["Druckversuch"]],"forbidden_concepts":[]}},
{"case_id":"TR-04","description":"rejection plus alternative","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten den Versuch in der realen Anlage durchführen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir nicht; wir testen stattdessen im Technikum.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"Versuch in der realen Anlage nicht durchführen"},"expected":{"eligible":true,"target_observation_id":"obs_1","concepts":[["Versuch"],["durchführen"]],"material_concepts":[["real"],["Anlage"]],"forbidden_concepts":["Technikum"]}},
{"case_id":"TR-05","description":"personal preference","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die reale Anlage für den Versuch nutzen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Ich würde das nicht machen.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"personal_preference","normalized_action_text":"Ich würde das nicht machen"},"expected":{"eligible":false,"target_observation_id":null,"concepts":[],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR-06","description":"recommendation","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die reale Anlage verwenden.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Ich würde eher davon abraten.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"recommendation","normalized_action_text":"advise against using the real asset"},"expected":{"eligible":false,"target_observation_id":null,"concepts":[],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR-07","description":"temporary non-action","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten die Waschstufe einbauen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir erstmal noch nicht.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"temporary_non_action","normalized_action_text":"install the washing stage"},"expected":{"eligible":false,"target_observation_id":null,"concepts":[],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR-08","description":"concern only","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten das neue Material einsetzen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das wäre kritisch.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"none","normalized_action_text":null},"expected":{"eligible":false,"target_observation_id":null,"concepts":[],"material_concepts":[],"forbidden_concepts":[]}}
]
}
@@ -0,0 +1,9 @@
{
"schema_version":"experimental-target-resolution-v1-diagnostic",
"cases":[
{"case_id":"TR1-V1","strategy":"self_contained","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Mit Dr. Schlummer arbeiten wir nicht weiter.","speaker":"Martin","named_person":"Dr. Schlummer","addressee":null}],"negative_act":{"observation_id":"obs_1","negative_act_form":"explicit_non_pursuit","normalized_action_text":"working with Dr. Schlummer"},"expected":{"target_observation_id":"obs_1","concepts":[["Zusammenarbeit","arbeiten"],["Schlummer"],["fortsetzen","weiter"]],"material_concepts":[],"forbidden_concepts":["nicht"]}},
{"case_id":"TR2-V1","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Eine Möglichkeit wäre, die externe Lösung weiterzuverfolgen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das verfolgen wir nicht weiter.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"verfolgen wir nicht weiter"},"expected":{"target_observation_id":"obs_1","concepts":[["externe Lösung"],["weiterverfolgen","weiter verfolgen"]],"material_concepts":[],"forbidden_concepts":[]}},
{"case_id":"TR3-V1","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Für den Druckversuch steht die reale Anlage zur Diskussion.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Die reale Anlage nutzen wir dafür nicht.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"reale Anlage dafür nicht nutzen"},"expected":{"target_observation_id":"obs_1","concepts":[["Anlage"],["nutzen"]],"material_concepts":[["real"],["Druckversuch"]],"forbidden_concepts":[]}},
{"case_id":"TR4-V1","strategy":"paired","observations":[{"observation_id":"obs_1","evidence_id":"e1","content":"Martin: Wir könnten den Versuch in der realen Anlage durchführen.","speaker":"Martin","named_person":null,"addressee":null},{"observation_id":"obs_2","evidence_id":"e2","content":"Martin: Das machen wir nicht; wir testen stattdessen im Technikum.","speaker":"Martin","named_person":null,"addressee":null}],"negative_act":{"observation_id":"obs_2","negative_act_form":"explicit_non_pursuit","normalized_action_text":"Versuch in der realen Anlage nicht durchführen"},"expected":{"target_observation_id":"obs_1","concepts":[["Versuch"],["durchführen"]],"material_concepts":[["real"],["Anlage"]],"forbidden_concepts":["Technikum"]}}
]
}
@@ -0,0 +1,82 @@
import copy, json, unittest
from pathlib import Path
from src.meeting_lab.controlled_semantic_derivation.experiment_h import DerivationValidationError
from src.meeting_lab.controlled_semantic_derivation.experiment_rejection_v1 import (
build_target_prompt, derive, load_cases, validate_target,
)
CASES=load_cases(Path("tests/gold/controlled_rejection_v1/cases.json"))
BY_ID={c["case_id"]:c for c in CASES}
def negative(case, form=None):
return {"observation_id":case["expected"]["candidate_observation_id"],"negative_act_form":form or case["expected"]["negative_act_form"],"normalized_action_text":None if (form or case["expected"]["negative_act_form"])=="none" else "semantische Aktion"}
def target(case, oid=None, text="konkrete Zielhandlung"):
return {"candidate_observation_id":case["expected"]["candidate_observation_id"],"target_observation_id":oid or case["expected"]["target_observation_id"],"normalized_target_text":text}
class ControlledRejectionV1Tests(unittest.TestCase):
def test_positive_forms_derive_and_provenance_survives(self):
for cid in ("CR-01","CR-02","CR-07","CR-08"):
c=BY_ID[cid]; out=derive(c["observations"],negative(c),target(c))
self.assertEqual(out["derived_result"]["status"],"explicitly_rejected")
self.assertEqual(out["derived_result"]["support"]["target"]["evidence_id"],"e1")
self.assertNotIn("responsible_person",json.dumps(out["derived_result"]))
def test_noneligible_form_never_derives_even_with_target(self):
for form in ["personal_preference","recommendation","temporary_non_action","none"]:
c=BY_ID["CR-03"]; self.assertIsNone(derive(c["observations"],negative(c,form),target(c))["derived_result"])
def test_missing_target_prevents_derivation(self):
c=BY_ID["CR-02"]; t=target(c); t.update(target_observation_id=None,normalized_target_text=None)
self.assertIsNone(derive(c["observations"],negative(c),t)["derived_result"])
def test_unknown_ids_rejected(self):
for field in ["candidate_observation_id","target_observation_id"]:
c=BY_ID["CR-02"]; t=target(c); t[field]="obs_unknown"
with self.assertRaises(DerivationValidationError): validate_target(t,c["observations"])
def test_target_after_candidate_cannot_derive(self):
c=copy.deepcopy(BY_ID["CR-02"]); n={"observation_id":"obs_1","negative_act_form":"explicit_non_pursuit","normalized_action_text":"x"}; t={"candidate_observation_id":"obs_1","target_observation_id":"obs_2","normalized_target_text":"x"}
self.assertIsNone(derive(c["observations"],n,t)["derived_result"])
def test_same_observation_target_allowed(self):
c=BY_ID["CR-01"]; self.assertIsNotNone(derive(c["observations"],negative(c),target(c))["derived_result"])
def test_duplicate_provenance_rejected(self):
for field in ["observation_id","evidence_id"]:
c=copy.deepcopy(BY_ID["CR-02"]); c["observations"][1][field]=c["observations"][0][field]
with self.assertRaises(DerivationValidationError): derive(c["observations"],negative(BY_ID["CR-02"]),target(BY_ID["CR-02"]))
def test_target_text_constraints(self):
c=BY_ID["CR-02"]
with self.assertRaises(DerivationValidationError): validate_target(target(c,text=""),c["observations"])
t=target(c); t["target_observation_id"]=None
with self.assertRaises(DerivationValidationError): validate_target(t,c["observations"])
def test_null_target_accepts_only_null_text(self):
c=BY_ID["CR-02"]; t=target(c); t.update(target_observation_id=None,normalized_target_text=None)
self.assertEqual(validate_target(t,c["observations"]),t)
def test_forbidden_and_unknown_fields_rejected(self):
for extra in [{"status":"rejected"},{"nested":{"decision":True}},{"extra":1}]:
c=BY_ID["CR-02"]; t=target(c); t.update(extra)
with self.assertRaises(DerivationValidationError): validate_target(t,c["observations"])
def test_candidate_outputs_must_agree(self):
c=BY_ID["CR-02"]; t=target(c); t["candidate_observation_id"]="obs_1"
with self.assertRaises(DerivationValidationError): derive(c["observations"],negative(c),t)
def test_scope_and_alternative_fixture_contract(self):
self.assertLessEqual({"real","Druckversuch"},{x for group in BY_ID["CR-07"]["expected"]["material_concepts"] for x in group})
self.assertEqual(BY_ID["CR-08"]["expected"]["forbidden_concepts"],["Technikum"])
def test_target_prompt_is_semantic_only_and_fixed(self):
prompt=build_target_prompt(BY_ID["CR-08"])
self.assertIn("Ignore any separate positive alternative",prompt)
self.assertIn("Do not classify the negative act",prompt)
def test_accepted_negative_act_inputs_are_exactly_reused(self):
root=Path("artifacts/experiments/negative_act_form_v0/20260820_qwen35_9b_single_run")
for cid,nid in (("CR-01","NA-01"),("CR-03","NA-03"),("CR-04","NA-04"),("CR-05","NA-05"),("CR-06","NA-06")):
accepted=json.loads((root/nid.lower()/"v3_style_input_observations.json").read_text())
self.assertEqual(BY_ID[cid]["observations"],accepted)
@@ -0,0 +1,210 @@
import json
import tempfile
import unittest
from copy import deepcopy
from pathlib import Path
from src.meeting_lab.controlled_semantic_derivation.experiment_rejection import (
DerivationValidationError,
build_prompt,
derive_rejection,
evaluate_case,
load_gold_cases,
validate_recognition,
)
GOLD_PATH = Path("tests/gold/explicit_rejection_v0/cases.json")
POSITIVE_TEXT = {
"RJ-01": "reale Anlage für den Versuch nutzen",
"RJ-02": "externe Lösung weiterverfolgen",
"RJ-03": "Zusammenarbeit mit Dr. Schlummer fortsetzen",
"RJ-11": "reale Anlage für den Druckversuch nutzen",
"RJ-12": "Versuch in der realen Anlage durchführen",
}
def recognition_for(case):
expected = case["expected_recognition"]
positive = expected["rejection_form"] == "explicit_action_rejection"
return {
"rejection_observation_id": expected["rejection_observation_id"],
"target_observation_id": expected["target_observation_id"] if positive else None,
"rejection_form": expected["rejection_form"],
"normalized_rejected_action_text": POSITIVE_TEXT.get(case["case_id"]) if positive else None,
}
class ExplicitRejectionGoldExperimentTests(unittest.TestCase):
@classmethod
def setUpClass(cls):
cls.cases = load_gold_cases(GOLD_PATH)
cls.by_id = {case["case_id"]: case for case in cls.cases}
def test_fixture_contains_exactly_rj_01_through_rj_12(self):
self.assertEqual(list(self.by_id), [f"RJ-{number:02d}" for number in range(1, 13)])
def test_cases_use_only_minimal_v3_style_observations(self):
keys = {"observation_id", "evidence_id", "content", "speaker", "named_person", "addressee"}
for case in self.cases:
with self.subTest(case=case["case_id"]):
self.assertIn(len(case["observations"]), (1, 2))
self.assertTrue(all(set(item) == keys for item in case["observations"]))
def test_rj_01_derives_target_and_both_provenance_paths(self):
case = self.by_id["RJ-01"]
gates, result = derive_rejection(case["observations"], recognition_for(case))
self.assertTrue(all(gates.values()))
self.assertEqual(result["status"], "explicitly_rejected")
self.assertEqual(result["support"]["target"], {"observation_id": "obs_1", "evidence_id": "e1"})
self.assertEqual(result["support"]["rejection"], {"observation_id": "obs_2", "evidence_id": "e2"})
def test_rj_02_requires_paired_target_and_derives_abandonment(self):
case = self.by_id["RJ-02"]
_, result = derive_rejection(case["observations"], recognition_for(case))
self.assertIn("externe Lösung", result["content"])
with self.assertRaisesRegex(DerivationValidationError, "unknown target"):
derive_rejection(case["observations"][1:], recognition_for(case))
def test_rj_03_supports_same_observation_target_and_rejection(self):
case = self.by_id["RJ-03"]
_, result = derive_rejection(case["observations"], recognition_for(case))
self.assertEqual(result["support"]["target"], result["support"]["rejection"])
self.assertIn("Dr. Schlummer", result["content"])
def test_all_required_negative_cases_remain_non_rejections(self):
for case_id in ("RJ-04", "RJ-05", "RJ-06", "RJ-07", "RJ-08", "RJ-09", "RJ-10"):
case = self.by_id[case_id]
gates, result = derive_rejection(case["observations"], recognition_for(case))
with self.subTest(case=case_id):
self.assertFalse(gates["explicit_action_rejection"])
self.assertIsNone(result)
def test_rj_11_derives_and_preserves_location_and_purpose_scope(self):
case = self.by_id["RJ-11"]
_, result = derive_rejection(case["observations"], recognition_for(case))
self.assertIsNotNone(result)
self.assertIn("reale Anlage", result["content"])
self.assertIn("Druckversuch", result["content"])
def test_rj_12_rejects_only_real_plant_action_and_not_alternative(self):
case = self.by_id["RJ-12"]
_, result = derive_rejection(case["observations"], recognition_for(case))
self.assertIn("realen Anlage", result["content"])
self.assertNotIn("Technikum", result["content"])
def test_separate_target_cannot_follow_rejection(self):
case = deepcopy(self.by_id["RJ-01"])
case["observations"].reverse()
gates, result = derive_rejection(case["observations"], recognition_for(case))
self.assertFalse(gates["target_same_or_before_rejection"])
self.assertIsNone(result)
def test_unknown_target_observation_id_is_rejected(self):
case = self.by_id["RJ-01"]
recognition = recognition_for(case)
recognition["target_observation_id"] = "obs_99"
with self.assertRaisesRegex(DerivationValidationError, "unknown target"):
validate_recognition(recognition, case["observations"])
def test_unknown_rejection_observation_id_is_rejected(self):
case = self.by_id["RJ-01"]
recognition = recognition_for(case)
recognition["rejection_observation_id"] = "obs_99"
with self.assertRaisesRegex(DerivationValidationError, "unknown rejection"):
validate_recognition(recognition, case["observations"])
def test_duplicate_observation_ids_are_rejected(self):
fixture = json.loads(GOLD_PATH.read_text())
fixture["cases"][0]["observations"][1]["observation_id"] = "obs_1"
self._assert_bad_fixture(fixture, "observation IDs must be unique")
def test_inconsistent_evidence_provenance_is_rejected(self):
fixture = json.loads(GOLD_PATH.read_text())
fixture["cases"][0]["observations"][1]["evidence_id"] = "e1"
self._assert_bad_fixture(fixture, "evidence provenance must be unique")
def test_none_rejects_populated_target_or_action(self):
case = self.by_id["RJ-04"]
for field, value, message in (
("target_observation_id", "obs_1", "null target"),
("normalized_rejected_action_text", "Anlage nutzen", "null normalized"),
):
recognition = recognition_for(case)
recognition[field] = value
with self.subTest(field=field), self.assertRaisesRegex(DerivationValidationError, message):
validate_recognition(recognition, case["observations"])
def test_explicit_rejection_requires_normalized_target_text(self):
case = self.by_id["RJ-01"]
for value in (None, ""):
recognition = recognition_for(case)
recognition["normalized_rejected_action_text"] = value
with self.subTest(value=value), self.assertRaises(DerivationValidationError):
validate_recognition(recognition, case["observations"])
def test_unknown_schema_fields_are_rejected(self):
case = self.by_id["RJ-01"]
recognition = recognition_for(case)
recognition["explanation"] = "extra"
with self.assertRaisesRegex(DerivationValidationError, "unknown keys"):
validate_recognition(recognition, case["observations"])
def test_forbidden_normative_fields_are_rejected_recursively(self):
case = self.by_id["RJ-01"]
fields = (
"decision", "decision_status", "outcome", "topic_status", "closed",
"agreement", "responsible_person", "responsibility", "responsibility_scope",
"owner", "ownership", "assignee", "requested_actor", "status",
"explicitly_rejected", "action_item", "protocol_category", "confidence",
"relation", "relations", "graph", "unresolved_issue",
)
for field in fields:
recognition = recognition_for(case)
recognition["wrapper"] = {field: "forbidden"}
with self.subTest(field=field), self.assertRaisesRegex(DerivationValidationError, "forbidden semantic keys"):
validate_recognition(recognition, case["observations"])
def test_speaker_identity_creates_no_ownership_or_responsibility(self):
case = deepcopy(self.by_id["RJ-03"])
for speaker in ("Martin", "Clara", "Antonius"):
case["observations"][0]["speaker"] = speaker
_, result = derive_rejection(case["observations"], recognition_for(case))
with self.subTest(speaker=speaker):
self.assertNotIn("responsible_person", result)
self.assertNotIn("owner", result)
def test_all_expected_recognitions_evaluate_as_pass(self):
for case in self.cases:
evaluation = evaluate_case(case, recognition_for(case))
with self.subTest(case=case["case_id"]):
self.assertEqual(evaluation["classification"], "PASS")
def test_rj_11_qualifier_loss_and_rj_12_alternative_absorption_fail(self):
rj11 = self.by_id["RJ-11"]
recognition = recognition_for(rj11)
recognition["normalized_rejected_action_text"] = "reale Anlage nutzen"
self.assertEqual(evaluate_case(rj11, recognition)["classification"], "FAIL")
rj12 = self.by_id["RJ-12"]
recognition = recognition_for(rj12)
recognition["normalized_rejected_action_text"] += "; stattdessen im Technikum testen"
self.assertEqual(evaluate_case(rj12, recognition)["classification"], "FAIL")
def test_prompt_is_fixed_narrow_and_does_not_expose_gold_expectation(self):
prompt = build_prompt(self.by_id["RJ-01"])
self.assertIn("candidate rejection observation is obs_2", prompt)
self.assertNotIn("expected_result", prompt)
self.assertNotIn("Who is responsible", prompt)
def _assert_bad_fixture(self, fixture, message):
with tempfile.TemporaryDirectory() as temporary:
path = Path(temporary) / "cases.json"
path.write_text(json.dumps(fixture), encoding="utf-8")
with self.assertRaisesRegex(DerivationValidationError, message):
load_gold_cases(path)
if __name__ == "__main__":
unittest.main()
+162
View File
@@ -0,0 +1,162 @@
import argparse
import json
import tempfile
import unittest
from copy import deepcopy
from pathlib import Path
from unittest.mock import patch
import src.meeting_lab.controlled_semantic_derivation.experiment_negative_act as module
from src.meeting_lab.controlled_semantic_derivation.experiment_negative_act import (
DerivationValidationError,
build_ollama_payload,
build_prompt,
evaluate_case,
load_gold_cases,
parse_model_json,
run_experiment,
validate_classification,
)
GOLD_PATH = Path("tests/gold/negative_act_form_v0/cases.json")
FORM_TEXT = {
"NA-01": "Zusammenarbeit mit Dr. Schlummer fortsetzen",
"NA-02": "externe Lösung weiterverfolgen",
"NA-03": "reale Anlage für den Versuch nutzen",
"NA-04": "reale Anlage verwenden",
"NA-05": "Waschstufe einbauen",
}
def classification_for(case):
expected = case["expected"]
return {
"observation_id": expected["observation_id"],
"negative_act_form": expected["negative_act_form"],
"normalized_action_text": FORM_TEXT.get(case["case_id"]),
}
class NegativeActFormExperimentTests(unittest.TestCase):
@classmethod
def setUpClass(cls):
cls.cases = load_gold_cases(GOLD_PATH)
cls.by_id = {case["case_id"]: case for case in cls.cases}
def test_fixture_contains_exactly_na_01_through_na_08(self):
self.assertEqual(list(self.by_id), [f"NA-{number:02d}" for number in range(1, 9)])
def test_exact_schema_is_accepted(self):
case = self.by_id["NA-01"]
self.assertEqual(validate_classification(classification_for(case), case["observations"]), classification_for(case))
def test_unknown_field_is_rejected(self):
case = self.by_id["NA-01"]
classification = classification_for(case)
classification["explanation"] = "extra"
with self.assertRaisesRegex(DerivationValidationError, "unknown keys"):
validate_classification(classification, case["observations"])
def test_invalid_enum_is_rejected(self):
case = self.by_id["NA-01"]
classification = classification_for(case)
classification["negative_act_form"] = "rejection"
with self.assertRaisesRegex(DerivationValidationError, "unsupported value"):
validate_classification(classification, case["observations"])
def test_non_none_requires_normalized_action_text(self):
case = self.by_id["NA-01"]
for value in (None, ""):
classification = classification_for(case)
classification["normalized_action_text"] = value
with self.subTest(value=value), self.assertRaises(DerivationValidationError):
validate_classification(classification, case["observations"])
def test_none_requires_null_normalized_action_text(self):
case = self.by_id["NA-06"]
classification = classification_for(case)
self.assertIsNone(classification["normalized_action_text"])
classification["normalized_action_text"] = "Material einsetzen"
with self.assertRaisesRegex(DerivationValidationError, "requires null"):
validate_classification(classification, case["observations"])
def test_forbidden_normative_fields_are_rejected_recursively(self):
case = self.by_id["NA-01"]
fields = (
"rejection_form", "explicitly_rejected", "status", "decision", "outcome",
"topic_status", "responsible_person", "responsibility", "owner",
"requested_actor", "action_item", "protocol_category", "confidence",
"relation", "relations", "graph", "unresolved_issue",
)
for field in fields:
classification = classification_for(case)
classification["wrapper"] = {field: "forbidden"}
with self.subTest(field=field), self.assertRaisesRegex(DerivationValidationError, "forbidden semantic keys"):
validate_classification(classification, case["observations"])
def test_unknown_observation_id_is_rejected(self):
case = self.by_id["NA-01"]
classification = classification_for(case)
classification["observation_id"] = "obs_99"
with self.assertRaisesRegex(DerivationValidationError, "unknown observation"):
validate_classification(classification, case["observations"])
def test_malformed_json_is_rejected(self):
with self.assertRaises(json.JSONDecodeError):
parse_model_json("{bad json")
def test_all_expected_classifications_evaluate_as_pass(self):
for case in self.cases:
evaluation = evaluate_case(case, classification_for(case))
with self.subTest(case=case["case_id"]):
self.assertEqual(evaluation["classification"], "PASS")
def test_fixed_prompt_contains_candidate_and_no_gold_expectation(self):
prompt = build_prompt(self.by_id["NA-03"])
self.assertIn("candidate observation is obs_2", prompt)
self.assertNotIn("expected", prompt)
self.assertNotIn("Who is responsible", prompt)
def test_fixed_model_configuration(self):
payload = build_ollama_payload("qwen3.5:9B", "prompt", 16384, 1024)
self.assertFalse(payload["think"])
self.assertFalse(payload["stream"])
self.assertEqual(payload["options"]["temperature"], 0)
def test_no_rejection_or_status_derivation_function_exists(self):
public_names = {name for name in dir(module) if not name.startswith("_")}
self.assertNotIn("derive_rejection", public_names)
self.assertFalse(any(name.startswith("derive_") for name in public_names))
def test_artifacts_preserve_semantic_classification_only(self):
case = self.by_id["NA-01"]
raw = json.dumps(classification_for(case), ensure_ascii=False)
with tempfile.TemporaryDirectory() as temporary:
output = Path(temporary) / "run"
args = argparse.Namespace(
cases=GOLD_PATH, output=output, model="qwen3.5:9B",
endpoint="http://unused", timeout=1, num_ctx=16384, num_predict=1024,
)
with patch.object(module, "load_gold_cases", return_value=[deepcopy(case)]), patch.object(
module, "call_ollama", return_value=(raw, {"model": "qwen3.5:9B"})
):
summary = run_experiment(args)
self.assertEqual(summary["successful_llm_call_count"], 1)
case_dir = output / "na-01"
for filename in (
"v3_style_input_observations.json", "prompt.txt", "raw_model_response.txt",
"parsed_semantic_classification.json", "structural_validation.json",
"evaluation.json", "ollama_metadata.json",
):
self.assertTrue((case_dir / filename).is_file(), filename)
self.assertFalse((case_dir / "final_derived_result.json").exists())
self.assertFalse((case_dir / "deterministic_gate_results.json").exists())
parsed = json.loads((case_dir / "parsed_semantic_classification.json").read_text())
self.assertEqual(set(parsed), {"observation_id", "negative_act_form", "normalized_action_text"})
if __name__ == "__main__":
unittest.main()
@@ -0,0 +1,51 @@
import argparse,copy,json,tempfile,unittest
from pathlib import Path
from unittest.mock import Mock
import src.meeting_lab.controlled_semantic_derivation.experiment_target_normalization as module
from src.meeting_lab.controlled_semantic_derivation.experiment_h import DerivationValidationError
CASES=module.load_cases(Path("tests/gold/target_normalization_v0/cases.json")); BY={c["case_id"]:c for c in CASES}
def output(case,text=None):
link=case["fixed_linkage"]; return {"candidate_observation_id":link["candidate_observation_id"],"target_observation_id":link["target_observation_id"],"normalized_target_text":text or case["expected"]["normalized_target_text"]}
class TargetNormalizationTests(unittest.TestCase):
def test_exact_id_copying_accepted(self):
for case in CASES: self.assertEqual(module.validate_output(output(case),case),output(case))
def test_changed_candidate_rejected(self):
case=BY["TN-02"]; data=output(case); data["candidate_observation_id"]="obs_1"
with self.assertRaises(DerivationValidationError): module.validate_output(data,case)
def test_changed_target_rejected(self):
case=BY["TN-02"]; data=output(case); data["target_observation_id"]="obs_2"
with self.assertRaises(DerivationValidationError): module.validate_output(data,case)
def test_empty_and_null_text_rejected(self):
case=BY["TN-01"]
for value in ("",None):
data=output(case); data["normalized_target_text"]=value
with self.assertRaises(DerivationValidationError): module.validate_output(data,case)
def test_unknown_and_forbidden_fields_rejected(self):
case=BY["TN-01"]
for extra in ({"extra":1},{"status":"x"},{"nested":{"decision":True}}):
data=output(case); data.update(extra)
with self.assertRaises(DerivationValidationError): module.validate_output(data,case)
def test_true_schema_fixes_both_ids_and_disallows_null(self):
case=BY["TN-02"]; schema=module.output_schema(case); self.assertEqual(schema["properties"]["candidate_observation_id"]["const"],"obs_2"); self.assertEqual(schema["properties"]["target_observation_id"]["const"],"obs_1"); self.assertEqual(schema["properties"]["normalized_target_text"]["type"],"string"); self.assertFalse(schema["additionalProperties"])
def test_payload_uses_schema_object(self):
schema=module.output_schema(BY["TN-01"]); payload=module.build_payload("qwen3.5:9B","p",schema,16384,1024); self.assertIs(payload["format"],schema); self.assertIsInstance(payload["format"],dict)
def test_duplicate_ids_and_evidence_rejected(self):
for field in ("observation_id","evidence_id"):
case=copy.deepcopy(BY["TN-02"]); case["observations"][1][field]=case["observations"][0][field]
with self.assertRaises(DerivationValidationError): module.validate_linkage(case)
def test_prompt_is_fixed_normalization_only(self):
first=module.build_prompt(BY["TN-01"]); second=module.build_prompt(BY["TN-02"]); self.assertIn("do not perform target selection",first); self.assertIn("concrete POSITIVE action",first); self.assertEqual(first.split("Fixed candidate_observation_id:")[0],second.split("Fixed candidate_observation_id:")[0])
def test_no_target_selection_or_rejection_derivation_exists(self):
self.assertFalse(hasattr(module,"select_target")); self.assertFalse(hasattr(module,"derive")); self.assertNotIn("explicitly_rejected",module.OUTPUT_KEYS); self.assertNotIn("status",module.OUTPUT_KEYS)
def test_artifacts_preserve_fixed_linkage(self):
case=BY["TN-01"]; fixture={"schema_version":module.SCHEMA_VERSION,"cases":[case]}; caller=Mock(return_value=(json.dumps(output(case)),{"model":"qwen3.5:9B"}))
with tempfile.TemporaryDirectory() as tmp:
root=Path(tmp); path=root/"cases.json"; path.write_text(json.dumps(fixture)); out=root/"out"; args=argparse.Namespace(cases=path,output=out,endpoint="x",model="qwen3.5:9B",timeout=1,num_ctx=16384,num_predict=1024); summary=module.run(args,caller); self.assertEqual(summary["llm_call_count"],1); self.assertEqual(json.loads((out/"tn-01"/"fixed_linkage.json").read_text()),case["fixed_linkage"]); self.assertTrue((out/"tn-01"/"normalized_target_result.json").exists())
def test_negative_polarity_fails_evaluation(self):
case=BY["TN-01"]; self.assertEqual(module.evaluate(case,output(case,"Mit Dr. Schlummer arbeiten wir nicht weiter"))["classification"],"FAIL")
def test_material_scope_and_alternative_contract(self):
self.assertEqual(module.evaluate(BY["TN-03"],output(BY["TN-03"]))["classification"],"PASS"); self.assertEqual(module.evaluate(BY["TN-04"],output(BY["TN-04"]))["classification"],"PASS")
if __name__=="__main__": unittest.main()
@@ -0,0 +1,75 @@
import argparse, copy, json, tempfile, unittest
from pathlib import Path
from unittest.mock import Mock
from src.meeting_lab.controlled_semantic_derivation.experiment_h import DerivationValidationError
import src.meeting_lab.controlled_semantic_derivation.experiment_target_resolution as module
GOLD=Path("tests/gold/target_resolution_v0/cases.json")
CASES=module.load_cases(GOLD); BY_ID={c["case_id"]:c for c in CASES}
def target(case, target_id=None, text="konkrete Zielhandlung"):
return {"candidate_observation_id":case["negative_act"]["observation_id"],"target_observation_id":target_id if target_id is not None else case["expected"]["target_observation_id"],"normalized_target_text":text}
class TargetResolutionTests(unittest.TestCase):
def test_eligibility_enum_boundary(self):
for cid in ("TR-01","TR-02","TR-03","TR-04"):
self.assertTrue(module.eligibility(BY_ID[cid]["negative_act"],BY_ID[cid]["observations"])["eligible_for_target_resolution"])
for cid in ("TR-05","TR-06","TR-07","TR-08"):
gate=module.eligibility(BY_ID[cid]["negative_act"],BY_ID[cid]["observations"])
self.assertFalse(gate["eligible_for_target_resolution"]); self.assertEqual(gate["reason"],"negative_act_form_not_explicit_non_pursuit")
def test_ineligible_cases_never_call_resolver_and_record_skip(self):
fixture={"schema_version":module.SCHEMA_VERSION,"cases":[BY_ID[x] for x in ("TR-05","TR-06","TR-07","TR-08")]}; resolver=Mock()
with tempfile.TemporaryDirectory() as tmp:
root=Path(tmp); cases=root/"cases.json"; cases.write_text(json.dumps(fixture)); out=root/"out"
summary=module.run(argparse.Namespace(cases=cases,output=out,endpoint="x",model="qwen3.5:9B",timeout=1,num_ctx=16384,num_predict=1024),resolver)
self.assertEqual(summary["target_resolution_llm_call_count"],0); resolver.assert_not_called()
for cid in ("tr-05","tr-06","tr-07","tr-08"):
skipped=json.loads((out/cid/"target_resolution_skipped.json").read_text()); self.assertFalse(skipped["call_made"])
def test_self_contained_target_equals_candidate(self):
c=BY_ID["TR-01"]; self.assertEqual(module.validate_target(target(c,text="Zusammenarbeit mit Dr. Schlummer fortsetzen"),c["observations"],"obs_1")["target_observation_id"],"obs_1")
def test_paired_target_precedes_candidate(self):
c=BY_ID["TR-02"]; self.assertEqual(module.validate_target(target(c,text="externe Lösung weiterverfolgen"),c["observations"],"obs_2")["target_observation_id"],"obs_1")
def test_target_after_candidate_rejected(self):
c=copy.deepcopy(BY_ID["TR-02"]); data={"candidate_observation_id":"obs_1","target_observation_id":"obs_2","normalized_target_text":"x"}
with self.assertRaises(DerivationValidationError): module.validate_target(data,c["observations"],"obs_1")
def test_unknown_candidate_and_target_rejected(self):
c=BY_ID["TR-02"]
with self.assertRaises(DerivationValidationError): module.validate_target({"candidate_observation_id":"missing","target_observation_id":"obs_1","normalized_target_text":"x"},c["observations"],"missing")
with self.assertRaises(DerivationValidationError): module.validate_target({"candidate_observation_id":"obs_2","target_observation_id":"missing","normalized_target_text":"x"},c["observations"],"obs_2")
def test_duplicate_observation_and_evidence_ids_rejected(self):
for field in ("observation_id","evidence_id"):
obs=copy.deepcopy(BY_ID["TR-02"]["observations"]); obs[1][field]=obs[0][field]
with self.assertRaises(DerivationValidationError): module.validate_observations(obs)
def test_null_and_non_null_text_constraints(self):
c=BY_ID["TR-02"]
valid={"candidate_observation_id":"obs_2","target_observation_id":None,"normalized_target_text":None}; self.assertEqual(module.validate_target(valid,c["observations"],"obs_2"),valid)
for bad in ({"candidate_observation_id":"obs_2","target_observation_id":None,"normalized_target_text":"x"},{"candidate_observation_id":"obs_2","target_observation_id":"obs_1","normalized_target_text":""}):
with self.assertRaises(DerivationValidationError): module.validate_target(bad,c["observations"],"obs_2")
def test_unknown_and_recursive_forbidden_fields_rejected(self):
c=BY_ID["TR-02"]
for extra in ({"extra":1},{"nested":{"status":"rejected"}}):
data=target(c,text="x"); data.update(extra)
with self.assertRaises(DerivationValidationError): module.validate_target(data,c["observations"],"obs_2")
def test_self_contained_prompt_fixes_linkage_deterministically(self):
prompt=module.build_prompt(BY_ID["TR-01"]); self.assertIn("deterministically fixed to obs_1",prompt); self.assertIn("only normalize",prompt)
def test_ineligible_prompt_is_impossible(self):
with self.assertRaises(DerivationValidationError): module.build_prompt(BY_ID["TR-05"])
def test_experiment_has_no_rejection_derivation(self):
self.assertFalse(hasattr(module,"derive")); self.assertNotIn("explicitly_rejected",module.TARGET_KEYS); self.assertNotIn("status",module.TARGET_KEYS)
def test_evaluation_preserves_scope_and_alternative_contract(self):
c=BY_ID["TR-04"]; gate=module.eligibility(c["negative_act"],c["observations"]); result=module.evaluate(c,gate,True,target(c,text="Versuch in der realen Anlage durchführen")); self.assertEqual(result["classification"],"PASS"); self.assertTrue(result["alternative_isolation"])
if __name__=="__main__": unittest.main()
@@ -0,0 +1,59 @@
import argparse,copy,json,tempfile,unittest
from pathlib import Path
from unittest.mock import Mock
import src.meeting_lab.controlled_semantic_derivation.experiment_target_resolution_v1 as module
from src.meeting_lab.controlled_semantic_derivation.experiment_h import DerivationValidationError
CASES=module.load_cases(Path("tests/gold/target_resolution_v1/cases.json")); BY={c["case_id"]:c for c in CASES}
def self_output(text="Zusammenarbeit mit Dr. Schlummer fortsetzen"): return {"candidate_observation_id":"obs_1","normalized_target_text":text}
def paired(case,target="obs_1",text="externe Lösung weiterverfolgen"): return {"candidate_observation_id":case["negative_act"]["observation_id"],"target_observation_id":target,"normalized_target_text":text}
class TargetResolutionV1Tests(unittest.TestCase):
def test_self_linkage_is_deterministic_and_equals_candidate(self):
result=module.deterministic_self_link(BY["TR1-V1"]); self.assertEqual(result["linkage_source"],"deterministic"); self.assertEqual(result["target_observation_id"],result["candidate_observation_id"])
def test_self_llm_output_has_no_target_id(self):
self.assertEqual(module.SELF_KEYS,{"candidate_observation_id","normalized_target_text"}); self.assertNotIn("target_observation_id",module.output_schema(BY["TR1-V1"])["properties"])
def test_self_combination_records_link_and_normalization_separately(self):
combined=module.combine(BY["TR1-V1"],self_output()); self.assertEqual(combined["target_observation_id"],"obs_1"); self.assertIn("fortsetzen",combined["normalized_target_text"])
def test_self_link_rejects_paired_strategy(self):
with self.assertRaises(DerivationValidationError): module.deterministic_self_link(BY["TR2-V1"])
def test_paired_schema_enumerates_allowed_ids_and_null(self):
schema=module.output_schema(BY["TR2-V1"]); self.assertEqual(schema["properties"]["target_observation_id"]["enum"],["obs_1","obs_2",None]); self.assertFalse(schema["additionalProperties"])
def test_allowed_obs1_and_obs2_are_structurally_accepted(self):
case=BY["TR2-V1"]
module.validate_semantic_output(paired(case,"obs_1"),case); module.validate_semantic_output(paired(case,"obs_2"),case)
def test_unknown_and_string_null_targets_rejected(self):
case=BY["TR2-V1"]
for value in ("obs_9","null"):
with self.assertRaises(DerivationValidationError): module.validate_semantic_output(paired(case,value),case)
def test_json_null_accepted_and_requires_null_text(self):
case=BY["TR2-V1"]; valid=paired(case,None,None); self.assertEqual(module.validate_semantic_output(valid,case),valid)
with self.assertRaises(DerivationValidationError): module.validate_semantic_output(paired(case,None,"x"),case)
def test_non_null_requires_nonempty_text(self):
with self.assertRaises(DerivationValidationError): module.validate_semantic_output(paired(BY["TR2-V1"],"obs_1",""),BY["TR2-V1"])
def test_target_after_candidate_rejected(self):
case=copy.deepcopy(BY["TR2-V1"]); case["negative_act"]["observation_id"]="obs_1"
with self.assertRaises(DerivationValidationError): module.validate_semantic_output({"candidate_observation_id":"obs_1","target_observation_id":"obs_2","normalized_target_text":"x"},case)
def test_duplicate_ids_and_evidence_rejected(self):
for field in ("observation_id","evidence_id"):
obs=copy.deepcopy(BY["TR2-V1"]["observations"]); obs[1][field]=obs[0][field]
with self.assertRaises(DerivationValidationError): module.validate_observations(obs)
def test_forbidden_and_unknown_fields_rejected(self):
case=BY["TR2-V1"]
for extra in ({"status":"x"},{"nested":{"decision":True}},{"extra":1}):
data=paired(case); data.update(extra)
with self.assertRaises(DerivationValidationError): module.validate_semantic_output(data,case)
def test_payload_uses_true_schema_object(self):
schema=module.output_schema(BY["TR2-V1"]); payload=module.build_payload("qwen3.5:9B","p",schema,16384,1024); self.assertIs(payload["format"],schema); self.assertIsInstance(payload["format"],dict); self.assertEqual(payload["options"]["temperature"],0)
def test_prompt_has_typed_examples_and_allowed_ids(self):
prompt=module.build_prompt(BY["TR2-V1"]); self.assertIn('["obs_1", "obs_2"]',prompt); self.assertIn('"target_observation_id":null',prompt); self.assertIn('Never return the string "null"',prompt); self.assertNotIn('observation ID or null',prompt)
def test_self_normalization_must_be_positive(self):
case=BY["TR1-V1"]; semantic=self_output("Mit Dr. Schlummer arbeiten wir nicht weiter."); combined=module.combine(case,semantic); self.assertEqual(module.evaluate(case,semantic,combined)["classification"],"FAIL")
def test_no_rejection_derivation_exists(self):
self.assertFalse(hasattr(module,"derive")); self.assertNotIn("status",module.PAIRED_KEYS); self.assertNotIn("explicitly_rejected",module.PAIRED_KEYS)
def test_runner_artifacts_distinguish_linkage_and_normalization(self):
case=BY["TR1-V1"]; fixture={"schema_version":module.SCHEMA_VERSION,"cases":[case]}; caller=Mock(return_value=(json.dumps(self_output()),{"model":"qwen3.5:9B"}))
with tempfile.TemporaryDirectory() as tmp:
root=Path(tmp); path=root/"cases.json"; path.write_text(json.dumps(fixture)); out=root/"out"; args=argparse.Namespace(cases=path,output=out,endpoint="x",model="qwen3.5:9B",timeout=1,num_ctx=16384,num_predict=1024); summary=module.run(args,caller); self.assertEqual(summary["llm_call_count"],1); self.assertTrue((out/"tr1-v1"/"deterministic_linkage_result.json").exists()); self.assertTrue((out/"tr1-v1"/"normalized_target_result.json").exists())
if __name__=="__main__": unittest.main()