Project overview

COMPUTER VISION · SC-30

Computer Vision Waste Detection & Sorting System

A computer-vision system for detecting, counting and classifying waste items and routing uncertain detections to review.

Starting point

Detection, classification and routing need an explicit path for ambiguous objects and changing conditions.

01 · BUSINESS PROBLEM

Visual automation fails when confidence is treated as certainty.

Detection, classification and routing need an explicit path for ambiguous objects and changing conditions.

01

Ambiguous classes

Visually similar materials create costly misclassification.

02

Changing scenes

Lighting, occlusion and camera position alter model confidence.

03

No review path

Low-confidence detections need a controlled fallback.

02 · DECISION LOGIC

Detect, classify, route and review.

The model output is treated as one stage in an operating process, not as an unquestioned answer.

Decision sequence

Each stage answers a different operating question

01Capture

Standardize frames and camera input.

02Detect

Locate and classify visible objects.

03Route

Map confident classes to an action.

04Review

Escalate ambiguous detections.

Decision rule — Confidence should control the action path, not disappear inside the model.

03 · WHAT CHANGED

A vision model connected to an operational review loop.

Detection, confidence thresholds, routing and traceability remain explicit.

01

Standardize the image input.

02

Detect and classify multiple objects per frame.

03

Route high-confidence classes automatically.

04

Retain low-confidence cases for review and learning.

04 · ARCHITECTURE

A modular path from input to decision.

Inputs → preparation → core logic → validation → decision output

SC-30 · SYSTEM ARCHITECTURE

Inputs → preparation → core logic → validation → decision output

Public portfolio implementation

Inputs

01

Source signals

Capture the operating inputs required by the system. [Python]

02

Preparation layer

Normalize context and create a stable analytical contract. [PyTorch]

Core system

03

Core engine

Run the main analytical or automation logic. [Ultralytics YOLO]

04

Decision logic

Apply the rule, model or orchestration logic that changes the decision. [OpenCV]

Validation

05

Validation

Test outputs against explicit quality criteria. [FastAPI]

06

Controls

Keep approvals, thresholds or constraints visible. [NumPy]

Decision output

07

Decision output

Expose the result in a form the user can act on. [Pandas]

08

Monitoring

Record outcomes, exceptions and evidence for iteration. [Plotly]

Integration boundaries

Python

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

PyTorch

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

Ultralytics YOLO

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

05 · EVIDENCE & ECONOMICS

Measure what changes the decision.

Public implementation, inspectable technical proof and decision-focused validation.

Detection quality

Classes

5

Representative public example.

mAP50

0.86

Representative public example.

Validation frames

1k

Representative public example.

Review coverage

Confidence bands

3

Representative public example.

Output routes

4

Representative public example.

Reference economics

8 h/d

Reference scenario

20%

Illustrative improvement

1.6 h/d

Decision value

06 · TECHNICAL PROOF

Review the code behind the project.

Tools used

Python01
PyTorch02
Ultralytics YOLO03
OpenCV04
FastAPI05
NumPy06

BUSINESS CONCLUSION

Computer vision creates value when model confidence changes the operating action.

The useful system combines detection quality with routing, review and continuous evidence collection.

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