Tool Calling and Plugins for Preclinical Safety Assessment and Pharmacovigilance

Preclinical safety assessment data originates primarily from animal study reports, toxicology study reports, pharmacokinetic reports, and pathological

Data Characteristics in This Category

Preclinical safety assessment data originates primarily from animal study reports, toxicology study reports, pharmacokinetic reports, and pathological evaluations. Data update frequency is relatively low, typically aggregated and updated after a series of experimental batches complete. Document structures are mainly structured and semi-structured data, including experimental protocols, raw data records, statistical analysis results, and expert evaluation reports. Fields include dose, administration route, animal species, strain, sex, body weight, observation indicators (e.g., body weight change, organ coefficients, complete blood count, urinalysis, biochemical indicators), pathological findings (e.g., histopathological descriptions, lesion grades), and adverse event descriptions. Units involve mg/kg, g, ml, ℃, and %, among others. Pathological descriptions often contain extensive free text, requiring attention to medical terminology standardization.

Constraints Imposed by These Characteristics on "Tool Calling and Plugins"

Preclinical safety assessment data exists in the form of experimental reports. Its update frequency limits the need for real-time data synchronization; tool calling focuses more on batch processing and report parsing. The extensive free text in pathological descriptions within documents requires plugins to possess strong natural language processing capabilities to accurately identify medical entities and adverse event associations. The complexity of structured fields and units necessitates precise regular expression matching or predefined templates for tools when extracting and standardizing data. For example, extracting dosing amount and number of animals from toxicology reports may involve inconsistent formats, requiring customized parsing logic. Additionally, cross-report data correlation (e.g., associating pathological findings with specific dose groups) demands robust data integration capabilities from plugins. Processing histopathological section reports in image format requires plugins to have image recognition or OCR capabilities to convert them into analyzable text data.

Configuration Guidelines

Configuration ItemRecommended ValueRationale
PARSE_FILE_TIMEOUT_SECONDS600 secondsPreclinical safety assessment reports are large and complex to process, requiring ample parsing time.
maxContext8000 TokenPathological free text descriptions are lengthy; ensure the model can fully understand the context.
Chunk size1000 charactersEnsure each segment contains sufficient information while avoiding excessive length that could reduce model processing efficiency.
Similarity threshold0.75Accurately match drug names and adverse event terminology, reducing false recall rates.
tool_call_retries3 timesExternal interfaces may fail when handling complex queries or occasional network fluctuations; this improves call stability.
enable_ocrtrueSome raw experimental records or pathological image reports require OCR recognition.

Three Common Pitfalls

  • External model calls return empty results because ollama models fail to parse requests when Content-Type is improperly set for specific request body formats.
  • openapi interface calls successfully parse files but return no results. The response field is empty. This usually indicates the API interface is designed for asynchronous processing, requiring results via callback_url or by polling task_id.
  • Processing HTTP file streams in a workflow results in an HTTP 400 Bad Request error. This occurs when the plugin configuration does not correctly encode the file stream as Base64 or multipart/form-data.

How to Verify Configuration

  • Upload a typical preclinical safety assessment report (e.g., a PDF toxicology report) in a test environment. Check that the text content in the document field is complete and free of garbled characters after file parsing.
  • Use a report snippet containing specific adverse event descriptions for knowledge base Q&A. Verify that the model can accurately cite animal species, dose, and pathological findings from the original report text.
  • Call an external toxicity prediction or drug interaction query tool. Cross-reference the prediction_score or interaction_type fields returned by the tool with expected results. Check the tool_call_log for any failed call records.

The values provided are common starting points and should be measured against specific samples.

Question material comes from public community discussions. Configuration values are common starting points and should be measured against your own samples. Verified on 2026-09-21.