Inferensys

Prompt

Trade Secret and IP Sensitivity Scoring Prompt

A practical prompt playbook for using Trade Secret and IP Sensitivity Scoring Prompt in production AI workflows.
Operations team reviewing AI workflow automation on laptop, workflow builder visible, casual office setup.
PROMPT PLAYBOOK

When to Use This Prompt

Defines the ideal job, user, and preconditions for the Trade Secret and IP Sensitivity Scoring Prompt, and clarifies when it should not be used.

This prompt is an ingress filter for AI middleware and data loss prevention (DLP) pipelines. Its job is to classify unstructured text—such as a user query, a document chunk, or an internal message—for trade secret and intellectual property sensitivity before that text reaches a general-purpose model, a vector database, or an unapproved processing queue. The primary users are IP legal teams defining protection policies, DLP engineers building automated scanning workflows, and security architects who need deterministic routing decisions. The prompt scores content across four categories: proprietary algorithms, source code, unreleased product details, and confidential business information. It outputs a tiered sensitivity score and a routing instruction that a downstream system can act on without further human interpretation.

Use this prompt when you need a pre-processing classification step that prevents protected IP from leaking into AI training data, third-party API calls, or unauthorized internal tools. It is designed for integration into a broader system: a middleware proxy that inspects prompts before they reach an LLM, a batch job that scans documents before ingestion into a knowledge base, or a DLP rule that triggers on specific sensitivity tiers. The prompt expects raw, unstructured text as input and returns a structured JSON classification. You should configure your application to read the routing_instruction field and enforce it—for example, by blocking the request, redirecting to an on-premises model, or quarantining the content for legal review. The prompt does not provide legal advice, nor does it replace a formal IP review process. It is a classification tool that reduces the surface area of accidental exposure.

Do not use this prompt as a standalone legal safeguard. It is not a substitute for data classification policies, access controls, or human review in high-stakes scenarios. The model may miss novel or obfuscated trade secret descriptions, and its confidence scores should be calibrated against your organization's risk tolerance. If you are handling content that is already marked as classified, regulated, or subject to legal hold, you should enforce those controls at the application layer before this prompt ever runs. For maximum safety, combine this prompt with a human review step for any content scored above a MEDIUM sensitivity tier, and log every classification decision for auditability. Start by running a batch evaluation against a labeled dataset of known IP-sensitive and benign documents to establish your own precision and recall baselines before deploying to production.

PRACTICAL GUARDRAILS

Use Case Fit

Where this prompt works and where it does not. Trade secret and IP sensitivity scoring requires clear definitions, structured output, and a defined escalation path. Misapplication creates false positives that block legitimate work or false negatives that leak confidential material.

01

Good Fit: Pre-Release Code Review

Use when: scanning source code, architecture docs, or algorithm descriptions before external sharing, publication, or model training. Guardrail: Pair with a diff-based review so only new material is scored, reducing noise on previously cleared code.

02

Bad Fit: Real-Time Chat Filtering

Avoid when: blocking messages in low-latency chat or video conferencing streams where sub-second decisions are required. Guardrail: Use this prompt in an async review queue. For real-time, deploy a fast keyword pre-filter that escalates matches to this scorer.

03

Required Input: Defined IP Taxonomy

Risk: Without a company-specific taxonomy of what constitutes a trade secret, proprietary algorithm, or confidential business information, the model defaults to generic definitions that miss domain-specific IP. Guardrail: Provide a structured taxonomy in [IP_CATEGORIES] with definitions and examples for each tier.

04

Operational Risk: Over-Classification Fatigue

Risk: Scoring too many documents as high-sensitivity causes review teams to ignore alerts. Guardrail: Calibrate sensitivity tiers so only 5-10% of documents hit the highest tier. Monitor distribution weekly and adjust thresholds if drift exceeds 15%.

05

Operational Risk: Source Code vs. Business Strategy Confusion

Risk: The same sensitivity score means different handling for source code (requires engineering review) versus M&A strategy (requires legal review). Guardrail: Output a separate content_type field and route to different review queues based on type, not just score.

06

Bad Fit: Public-Facing Content Already Cleared

Avoid when: scanning marketing blogs, press releases, or open-source documentation that has already passed legal review. Guardrail: Maintain an allowlist of pre-cleared sources, authors, or document IDs. Skip scoring for allowlisted content to reduce compute cost and false positives.

PROMPT PLAYBOOK

Copy-Ready Prompt Template

A production-ready prompt for classifying content sensitivity and determining secure routing instructions.

This section provides a copy-ready prompt template for the Trade Secret and IP Sensitivity Scoring Prompt. The template is designed to be dropped directly into an AI gateway, data loss prevention (DLP) pipeline, or a secure processing middleware. It instructs the model to act as a strict classifier, analyzing the provided content against a defined taxonomy of sensitive categories (proprietary algorithms, source code, unreleased product details, and confidential business information) and assigning a sensitivity tier that dictates how the data must be handled downstream. The prompt is structured to prevent the model from summarizing or reproducing the sensitive content itself, reducing the risk of exfiltration during the classification step.

The following template uses square-bracket placeholders for all dynamic inputs. Before deploying, replace [CONTENT] with the text to be classified. The optional [AUTHOR], [DEPARTMENT], [PROJECT], and [EXISTING_CLASSIFICATION] metadata fields provide additional context that can improve classification accuracy, especially for detecting unreleased product details or confidential business information. The [OUTPUT_SCHEMA] placeholder should be replaced with the strict JSON schema provided in the playbook's introduction, ensuring the model's output is machine-readable and can be parsed by a downstream routing engine.

text
Classify the following content for trade secret and intellectual property sensitivity. Use the sensitivity taxonomy and output schema provided. Do not generate, reproduce, or summarize the content itself. Only output the classification result in strict JSON format.

SENSITIVITY TAXONOMY
- proprietary_algorithms: Describes or references unique algorithms, models, formulas, or computational methods that provide competitive advantage. Includes training procedures, optimization techniques, and novel architectures.
- source_code: Contains or references production source code, configuration files, build scripts, or infrastructure-as-code that is not publicly released under an open-source license.
- unreleased_product_details: Describes features, capabilities, roadmaps, specifications, or performance characteristics of products or services that have not been publicly announced or released.
- confidential_business_information: Contains strategic plans, financial projections, customer lists, pricing, contract terms, M&A activity, partnership negotiations, or other non-public business data.

SENSITIVITY TIERS
- tier_0_none: No trade secret or IP-sensitive content detected.
- tier_1_low: Contains general business information that is not public but would cause minimal harm if disclosed.
- tier_2_medium: Contains specific technical or business details that would advantage competitors if disclosed.
- tier_3_high: Contains core trade secrets, unreleased product specifications, or strategic business data that would cause material harm if disclosed.
- tier_4_critical: Contains crown-jewel IP, source code for core differentiating technology, or pre-announcement M&A/financial data that would cause severe competitive or legal harm if disclosed.

ROUTING INSTRUCTIONS
- tier_0_none: route to standard processing queue.
- tier_1_low: route to internal-only processing queue with access logging.
- tier_2_medium: route to restricted processing queue with encryption at rest and access control.
- tier_3_high: route to air-gapped or on-premises processing only; block cloud processing.
- tier_4_critical: block all automated processing; escalate to human legal/IP review immediately.

OUTPUT SCHEMA
[OUTPUT_SCHEMA]

CONTENT TO CLASSIFY
"""
[CONTENT]
"""

METADATA (if available)
Author: [AUTHOR]
Department: [DEPARTMENT]
Project: [PROJECT]
Existing Classification: [EXISTING_CLASSIFICATION]

To adapt this template for your environment, first integrate the [OUTPUT_SCHEMA] directly into the prompt to avoid external dependencies and ensure the model has the exact format contract. The evidence_fragment field in the schema is critical for auditability; it forces the model to cite the specific text that triggered a detection, enabling human reviewers to quickly validate or overturn the classification. For high-risk deployments, always set the temperature to 0 to maximize determinism and use a model that supports strict JSON mode or structured outputs. Finally, implement a post-processing validation layer that checks the output against the JSON schema and verifies that the routing_instruction is consistent with the overall_sensitivity_tier before the routing decision is executed.

IMPLEMENTATION TABLE

Prompt Variables

Required and optional inputs for the Trade Secret and IP Sensitivity Scoring Prompt. Validate each variable before invoking the model to prevent misclassification and ensure routing integrity.

PlaceholderPurposeExampleValidation Notes

[SOURCE_TEXT]

The raw text block to classify for IP sensitivity

The new rendering algorithm uses a proprietary BVH traversal method we haven't published yet.

Required. Must be non-empty string. Truncate to model context window minus system prompt length.

[IP_CATEGORIES]

Taxonomy of IP types to detect

['source_code', 'algorithm', 'trade_secret', 'unreleased_product', 'business_strategy', 'customer_list', 'pricing_model']

Required. Must be a valid JSON array of strings. Validate against approved category list before prompt assembly.

[SENSITIVITY_TIERS]

Ordered list of sensitivity levels with routing rules

[{'tier': 'CRITICAL', 'queue': 'legal_review'}, {'tier': 'HIGH', 'queue': 'restricted_processing'}, {'tier': 'MEDIUM', 'queue': 'standard_processing'}, {'tier': 'LOW', 'queue': 'unrestricted'}]

Required. Must be a valid JSON array of objects with 'tier' and 'queue' keys. Queue names must match actual routing targets.

[CONFIDENCE_THRESHOLD]

Minimum confidence score for automated routing

0.85

Required. Float between 0.0 and 1.0. Scores below threshold route to human review queue. Do not set below 0.7 for IP workflows.

[OUTPUT_SCHEMA]

Expected JSON structure for classification output

{'sensitivity_tier': 'string', 'confidence_score': 'float', 'detected_categories': ['string'], 'evidence_snippets': ['string'], 'requires_human_review': 'boolean'}

Required. Must match downstream parser expectations. Validate schema before prompt injection. Reject malformed schema at assembly time.

[CONTEXT_WINDOW]

Additional context about the document source or author

{'document_type': 'internal_wiki', 'author_dept': 'R&D', 'classification_marking': 'none'}

Optional. Object with string values. Null allowed. If provided, use to weight sensitivity assessment. Do not inject if source is unknown or untrusted.

[EXAMPLES]

Few-shot examples of correct classification outputs

[{'text': 'Our Q4 roadmap includes Project Falcon launch in March.', 'output': {'sensitivity_tier': 'HIGH', 'confidence_score': 0.92, 'detected_categories': ['unreleased_product', 'business_strategy']}}]

Optional. Array of input-output pairs. Max 3 examples to avoid context bloat. Each example must match OUTPUT_SCHEMA structure exactly.

PROMPT PLAYBOOK

Implementation Harness Notes

Wire this prompt into a production classification pipeline with these guardrails.

Deploying the Trade Secret and IP Sensitivity Scoring Prompt in production requires a hardened application harness that treats the model output as untrusted input until validated. The core risk is that a misclassification—especially a false negative on tier_3_high or tier_4_critical content—can route proprietary source code, unreleased product specifications, or confidential business strategy to an external model or logging system, creating an immediate data breach. The harness must therefore enforce deterministic validation, auditability, and hard blocks before any downstream system receives the classified content.

Start by wrapping the prompt in a system message that explicitly instructs the model to never echo, summarize, or transform the input content; the only acceptable output is the JSON classification object. Implement a JSON schema validator on the raw model response that checks for required fields (sensitivity_tier, detected_categories, confidence_scores, routing_instruction) and rejects any response that fails validation. On the first validation failure, append the error message to a single retry request—do not loop beyond one retry to avoid latency spikes. Log every classification decision to an immutable audit store with the SHA-256 hash of the input, the output tier, per-category confidence scores, the routing instruction, the model version, and a timestamp. This log must never contain the raw input text; store only the hash to enable later verification without creating a secondary data leak surface.

For any output classified as tier_3_high or tier_4_critical, implement a hard application-layer block that prevents the associated content from being transmitted to any external API, cloud-hosted model, or logging pipeline that does not meet your required processing locality (e.g., on-premises or air-gapped environment). This block must be enforced in code, not in a prompt instruction, because prompt-level controls can be bypassed. Additionally, if the model returns a confidence score below 0.7 for any individual detected category, flag the entire classification result for human review regardless of the overall tier. Route these flagged items to a secure review queue with the input hash and the model's raw output, and do not release the content to any downstream system until a human reviewer confirms or overrides the classification.

Select a dedicated model endpoint with no conversation history enabled and temperature set to 0 to maximize output determinism. Avoid using a general-purpose chat endpoint where prior turns or system state could influence classification behavior. Finally, implement a dead-letter queue for any classification attempt that times out, returns a malformed response after the retry, or throws an exception. Unclassified content must never silently pass through to a default processing pipeline; the dead-letter queue ensures that failures are surfaced to operations teams for diagnosis rather than becoming invisible data leaks. Wire these guardrails together so that the classification path is: validate → classify → validate output → block or route → audit log, with human review and dead-letter queues as the only escape hatches.

IMPLEMENTATION TABLE

Expected Output Contract

Defines the strict JSON schema for the Trade Secret and IP Sensitivity Scoring Prompt. Use this contract to validate model outputs before routing to restricted processing queues.

Field or ElementType or FormatRequiredValidation Rule

sensitivity_score

integer (1-5)

Must be an integer between 1 and 5 inclusive. Reject if float or out of range.

sensitivity_tier

enum string

Must match one of: [PUBLIC, INTERNAL, CONFIDENTIAL, RESTRICTED, SECRET]. Reject on case mismatch or unknown value.

primary_category

enum string

Must match one of: [SOURCE_CODE, ALGORITHM, PRODUCT_ROADMAP, FINANCIAL_DATA, CUSTOMER_LIST, CONTRACT_TERMS, BUSINESS_STRATEGY, TRADE_SECRET, NONE]. Reject on unknown value.

rationale_summary

string (max 280 chars)

Must be a non-empty string. Truncate and flag if length exceeds 280 characters.

evidence_snippets

array of strings

Must be a JSON array with 1-3 direct quotes from [INPUT_TEXT]. Reject if array is empty or contains fabricated text not found verbatim in input.

requires_human_review

boolean

Must be true if sensitivity_score >= 4 or primary_category is TRADE_SECRET. Reject if boolean is false when these conditions are met.

routing_target

enum string

Must match one of: [STANDARD_PROCESSING, RESTRICTED_QUEUE, LEGAL_REVIEW, QUARANTINE]. Reject if routing_target is STANDARD_PROCESSING when requires_human_review is true.

confidence

float (0.0-1.0)

Must be a float between 0.0 and 1.0. If confidence < 0.7, requires_human_review must be true. Reject on parse failure or range violation.

PRACTICAL GUARDRAILS

Common Failure Modes

Trade secret and IP sensitivity scoring fails silently when the model confuses public knowledge with proprietary detail, misses obfuscated disclosures, or over-scores generic engineering language. These cards cover the most common production failure patterns and how to catch them before they cause a data handling incident.

01

Public Knowledge Misclassified as Trade Secret

What to watch: The model assigns high sensitivity scores to well-known algorithms, published papers, or open-source patterns simply because they appear technical. This floods restricted queues with false positives and erodes trust in the scoring system. Guardrail: Include a pre-check step that searches public documentation, patent databases, or internal knowledge bases for the same content before final scoring. Require the model to cite specific proprietary indicators rather than relying on technical vocabulary alone.

02

Obfuscated Disclosure Bypasses Detection

What to watch: Sensitive IP described through analogy, pseudocode, renamed variables, or abstracted architecture diagrams slips past the classifier because it lacks explicit proprietary markers. Attackers and careless insiders rarely use clean labels. Guardrail: Add a secondary semantic similarity check against known proprietary codebases, internal design documents, and unreleased product specs. Flag content that reconstructs protected functionality even when terminology is changed.

03

Over-Scoring of Generic Engineering Language

What to watch: Terms like 'proprietary algorithm,' 'confidential architecture,' or 'unreleased feature' trigger high sensitivity scores even when used in hypotheticals, job descriptions, or public marketing language. This creates alert fatigue and slows legitimate workflows. Guardrail: Require the prompt to distinguish between substantive technical disclosure and casual mention. Use few-shot examples showing generic usage that should score low versus specific implementation detail that should score high.

04

Context Window Truncation Hides Critical Signals

What to watch: Long documents with sensitive IP buried in later sections get scored based only on the first portion that fits in the context window. A benign introduction followed by detailed proprietary schematics produces a dangerously low score. Guardrail: Chunk documents with overlapping windows and score each chunk independently. Use the maximum sensitivity score across all chunks as the document-level score, and log which chunk triggered the highest classification.

05

Tier Boundary Gaming Produces Consistent Underscoring

What to watch: Users learn the scoring thresholds and subtly rephrase sensitive content to land just below a restricted tier boundary. Repeated borderline scores from the same source indicate intentional classification avoidance. Guardrail: Monitor score distributions per user, team, and source system. Flag patterns where scores cluster just below tier thresholds. Implement a proximity buffer that escalates borderline cases to human review rather than auto-routing to lower-security queues.

06

Multi-Modal IP Leakage Through Code and Diagrams

What to watch: Text-only scoring misses IP embedded in code snippets, architecture diagrams, database schemas, or configuration files that accompany natural language descriptions. A seemingly low-risk paragraph next to a proprietary system diagram receives an inappropriately low score. Guardrail: Extract and score code blocks, structured configs, and diagram descriptions separately. Combine scores with a rule that the highest sensitivity sub-component determines the overall classification tier.

IMPLEMENTATION TABLE

Evaluation Rubric

How to test output quality before shipping. Run these checks against a golden dataset of 100+ labeled examples spanning all tiers and categories.

CriterionPass StandardFailure SignalTest Method

Sensitivity Tier Accuracy

Exact match with golden label for 95% of examples

Tier mismatch on clear-cut cases (e.g., source code classified as internal-only)

Compare predicted tier against labeled tier in golden dataset; flag any mismatch for manual review

Category Classification Precision

Primary category matches golden label for 90% of examples

Proprietary algorithm content classified as general business information

Run confusion matrix on category predictions; investigate off-diagonal errors for systematic misclassification

Confidence Score Calibration

High-confidence scores (>0.85) correspond to >90% accuracy on held-out set

Confidence >0.9 on misclassified examples or confidence <0.5 on correctly classified examples

Plot reliability diagram; compute expected calibration error (ECE) across confidence bins

False Negative Rate on High-Sensitivity Content

Zero false negatives for source code, unreleased product details, and trade secret formulas

Any trade secret or proprietary algorithm example classified below restricted tier

Run targeted test set of 50 known high-sensitivity examples; require 100% recall on restricted-or-above tier

False Positive Rate on Public Content

Less than 5% of public blog posts, press releases, and open-source code classified as sensitive

Public documentation or open-source license text flagged as confidential or restricted

Run targeted test set of 50 known public examples; measure false positive rate at each sensitivity tier

Boundary Case Handling

Mixed-content examples (public summary + proprietary detail) classified at the higher sensitivity tier

Document containing both public and restricted sections classified as internal-only

Create 20 boundary examples with mixed sensitivity signals; verify conservative classification behavior

Output Schema Compliance

100% of outputs parse as valid JSON matching the defined schema

Missing required fields, malformed JSON, or extra fields not in schema

Validate all outputs against JSON schema; reject any output that fails structural validation

Routing Decision Correctness

Routing field matches expected processing queue for each sensitivity tier

Restricted-tier content routed to standard processing queue instead of restricted queue

Verify routing field against tier-to-queue mapping table; flag any routing that violates queue assignment rules

ADAPTATION OPTIONS

Adapt This Prompt

How to adapt

Use the base prompt with a frontier model (GPT-4o, Claude 3.5 Sonnet) and a simple JSON schema. Remove the tiered routing logic and focus on getting a single sensitivity score and a one-line justification. Accept raw text input without pre-processing.

code
Analyze the following content for trade secret and IP sensitivity. Return a JSON object with "score" (1-5) and "rationale" (one sentence).

Content: [INPUT_TEXT]

Watch for

  • Overly broad classifications that flag generic business language as trade secrets
  • Missing distinction between proprietary algorithms and publicly known techniques
  • No handling of mixed content where only portions are sensitive
Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.