Intelligent Value Extraction

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Intelligent Value Extraction — From Text to Traceable Signals
Intelligent Value Extraction
Applied NLP Architecture

From free text to traceable value signals.

Teams describe value in hundreds of ways. This system turns those phrases into a consistent set of business-value tags — while keeping the evidence, the scores, and the decision path visible for review.

Not magical precision — a repeatable, reviewable layer between unstructured work descriptions and portfolio-level analysis.

In this piece
  1. The system — five stages, fully inspectable
  2. The principles — design for review, not for trust
  3. Sources — the methods behind the architecture
01The system

Five stages, fully inspectable#

The mission, the pipeline, the ontology, the decision policy, and the output contract — each designed to be reviewed by a human, not trusted blindly.

Teams describe value in hundreds of different ways: “reduce latency,” “speed up delivery,” “strengthen controls.” The goal is not to make subjective language look magically precise — it is to create a repeatable, reviewable layer between unstructured work descriptions and portfolio-level analysis.

InNatural-language tasksShort descriptions of work, outcomes, improvements, or risks.
Extraction & mappingIdentify the value phrase, score it, compare with ontology concepts.
Policy decisionAccept, reject, or route to human review using thresholds.
OutAuditable tagsThe tag, evidence, scores, and review status — as JSON.
1
Value extraction.

Find the phrase that describes the expected benefit or avoided harm.

2
Evidence scoring.

Estimate how clearly the phrase is supported by the original text.

3
Semantic mapping.

Compare the phrase with the definitions and examples in the ontology.[1]

4
Policy decision.

Accept, reject, or route the candidate to human review using thresholds.

5
Structured output.

Store the tag, evidence, similarity, confidence, and decision status.

The ontology holds ten recurring value concepts; every accepted result cites one of them, with evidence.[3] Four of the ten:

EfficiencyCost, effort, or resource reduction.
AgilitySpeed, adaptability, and time-to-market.
ReliabilityStability, availability, and defect reduction.
Security & complianceProtection, controls, and obligations.
Chart 01 · the ontology in use
660 accepted tag assignments Illustrative dataset — segment size is observed frequency, not importance. Replace with production output when available.
Efficiency · 148Agility · 122Reliability · 96Security & compliance · 74Cost reduction · 58Quality · 52Customer experience · 40Innovation · 30Risk avoidance · 24Growth · 16

How to read this: frequency, not importance — all ten concepts remain valid even when one appears less often in a particular dataset.

Chart 02 · decision policy
0.40 0.55 0.70 0.85 1.00 0.00 0.25 0.50 0.75 1.00 Semantic similarity to ontology concept Evidence support score AUTO-ACCEPT ZONE Illustrative points and thresholds — “confidence” is a system score until formally calibrated.

How to read this: auto-accept only when both thresholds are met. High similarity with weak evidence — or strong evidence with an ambiguous tag — goes to review.

Thresholds should be selected on labelled validation data — not chosen because they “look right.”[2]Review rate, false acceptance, false rejection, and calibration all need monitoring in production.
Chart 03 · aggregated output
0 40 80 120 160 Efficiency 148 Agility 122 Reliability 96 Security & compliance 74 Cost reduction 58 Quality 52 Top six categories from the same illustrative batch.

How to read this: in this sample, Efficiency and Agility dominate — a portfolio tilting toward optimization and delivery speed over innovation-oriented work.

FieldMeaning
value_phraseThe exact benefit or risk phrase extracted from the source
tagThe selected ontology concept
similaritySemantic proximity to the tag definition and examples
confidenceSupport score for the extraction or classification
decisionAccepted, rejected, or needs review
record.json
{
  "source_text": "Reduced deployment time by automating checks",
  "value_phrase": "reduced deployment time",
  "tag": "Agility",
  "similarity": 0.88,
  "confidence": 0.91,
  "decision": "accepted",
  "evidence": "Reduced deployment time"
}
02The principles

Design for review, not for trust#

The system’s value is not that it is always right — it is that it is never opaque. Every acceptance carries its evidence; every uncertainty carries a route to a human.

1
Extract before you classify.

Language understanding and business taxonomy are separate problems — keep them separate.

2
Threshold on evidence AND similarity.

One strong signal is never enough for an autonomous decision.

3
Calibrate on labelled data.

A confidence score is a system score until you have proven otherwise.

4
Keep the receipt.

Tag, phrase, scores, decision — stored together, or it didn’t happen.

The portfolio effect: once every task speaks the same value language, leadership can finally ask — and answer — “what is the organization actually working on?”

03Grounding

Sources#

The numbers in the charts are illustrative samples. The architecture is not invented — these are the methods it stands on.

  1. Semantic similarity between short texts. Reimers & Gurevych, “Sentence-BERT: Sentence Embeddings using Siamese BERT-Networks” (EMNLP-IJCNLP 2019) — the standard recipe for comparing phrases by cosine similarity over sentence embeddings. arxiv.org/abs/1908.10084
  2. Why a confidence score is not a probability. Guo, Pleiss, Sun & Weinberger, “On Calibration of Modern Neural Networks” (ICML 2017) — modern models are systematically over-confident until calibrated on held-out data, which is why thresholds must be selected on labelled validation sets. arxiv.org/abs/1706.04599
  3. What an ontology is. Gruber, “A Translation Approach to Portable Ontology Specifications,” Knowledge Acquisition 5(2):199–220 (1993) — the classic definition: an explicit specification of a shared conceptualization. doi.org/10.1006/knac.1993.1008
Turning narrative work descriptions into consistent, traceable portfolio signals.
Updated 6 August 2026. All chart values are illustrative samples, not production output.
Ali Reza Rashidi
Ali Reza Rashidi
Ali Reza Rashidi, a Senior Data Scientist-Gen Al | Al Architect | MLOps with over ten years of experience, He is the author of three books that delve into the world of data and management.

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