Thermal camera training

Lesson 1 • Infrared Radiation Basics

Covers the electromagnetic spectrum, infrared wavelengths, and how objects emit thermal energy. Establishes the physics foundation required for all subsequent camera operation topics.

Lesson 2 • Thermal Contrast and Resolution

Introduces thermal contrast, spatial resolution, and thermal sensitivity as image quality metrics. Provides criteria for evaluating camera suitability for specific tasks.

Lesson 3 • Emissivity and Surface Properties

Defines emissivity and its effect on accurate temperature measurement. Students learn why surface material and finish alter apparent thermal readings.

Lesson 1 • Detector Types and Technologies

Compares cooled and uncooled detector technologies, including microbolometer and photon detectors. Connects detector choice to sensitivity, cost, and application requirements.

Lesson 2 • Accessories and Ancillary Equipment

Reviews tripods, external displays, calibration sources, and data storage accessories. Students understand how accessories extend camera capability and improve workflow.

Lesson 3 • Camera Body and Controls

Familiarises students with physical controls, display interfaces, and ergonomic handling. Builds confidence in navigating menus and adjusting settings in the field.

Lesson 4 • Optical Systems and Lenses

Covers infrared-transmissive lens materials, focal lengths, and field-of-view calculations. Students learn to match lens selection to target distance and required detail.

Lesson 1 • Non-Uniformity Correction Procedures

Explains flat-field correction and shutter-based non-uniformity correction cycles. Students learn when and how to trigger corrections to maintain image uniformity.

Lesson 2 • Pre-Inspection Equipment Checks

Establishes a systematic checklist for verifying camera readiness before deployment. Prevents measurement errors caused by overlooked hardware or software issues.

Lesson 3 • Focus and Image Optimisation

Covers manual and automatic focus techniques alongside contrast and level adjustments. Proper focus and palette selection directly affect anomaly detection reliability.

Lesson 4 • Emissivity and Atmospheric Settings

Guides students through entering emissivity, ambient temperature, humidity, and distance parameters. Accurate parameter entry is the primary driver of measurement precision.

Lesson 1 • Environmental Conditions and Timing

Identifies how solar loading, wind, rain, and time of day affect thermal image quality. Students plan inspections around optimal environmental windows for each application.

Lesson 2 • Dual-Sensor and Fusion Imaging

Introduces simultaneous visible-light and thermal image capture and fusion techniques. Fused images improve anomaly localisation and enhance report clarity for clients.

Lesson 3 • Camera Distance and Angle

Covers the relationship between working distance, angle of incidence, and measurement accuracy. Students position themselves to maximise thermal contrast and minimise reflection errors.

Lesson 4 • Steady-State vs. Transient Conditions

Distinguishes between steady-state thermal patterns and transient thermal events. Students recognise which condition is present and adapt acquisition strategy accordingly.

Lesson 1 • Identifying Thermal Anomalies

Teaches systematic scanning patterns and anomaly recognition criteria across application domains. Students apply a structured approach to avoid missed findings.

Lesson 2 • Severity Classification Systems

Introduces temperature differential and risk-based severity classification frameworks. Students assign priority levels that guide maintenance scheduling and corrective action.

Lesson 3 • Temperature Measurement Tools

Covers spot meters, area analysis, line profiles, and isotherm tools within analysis software. Students extract quantitative temperature data to support objective severity ratings.

Lesson 4 • Colour Palettes and Temperature Scales

Explains how palette choice and scale range influence anomaly visibility and perception. Students select palettes that maximise contrast for the specific inspection type.

Lesson 1 • Electrical System Inspection Principles

Covers load requirements, safety protocols, and access procedures for energised electrical equipment. Students understand why minimum load thresholds are compulsory for valid thermal findings.

Lesson 2 • Common Electrical Fault Signatures

Identifies thermal patterns associated with loose connections, overloaded circuits, and failing components. Students correlate temperature differentials with specific fault types and urgency levels.

Lesson 3 • Comparative and Baseline Analysis

Establishes baseline thermal profiles for equipment and uses trend comparison to detect degradation. Trending over time improves diagnostic confidence and reduces false alarms.

Lesson 4 • Mechanical Equipment Inspection

Applies thermal imaging to motors, bearings, couplings, and drive systems to detect friction and wear. Students recognise early-stage mechanical degradation before failure occurs.

Lesson 1 • Moisture and Water Intrusion Detection

Covers evaporative cooling signatures that reveal trapped moisture in roofs, walls, and floors. Students apply timing and environmental knowledge to maximise moisture detection accuracy.

Lesson 2 • Building Thermography Principles

Explains delta-T requirements, pressure differentials, and seasonal timing for valid building inspections. Students understand why environmental conditions determine inspection validity.

Lesson 3 • Energy Audit Integration

Integrates thermal findings into a broader energy audit framework alongside blower door and utility data. Students quantify heat loss areas and prioritise remediation by energy impact.

Lesson 4 • Insulation and Air Leakage Detection

Identifies thermal patterns caused by missing insulation, thermal bridging, and air infiltration. Students differentiate insulation defects from air leakage using pattern and location analysis.

Lesson 1 • Report Structure and Standards

Defines the required sections, image presentation standards, and metadata requirements for professional reports. Consistent structure ensures reports are auditable and comparable across inspections.

Lesson 2 • Record Keeping and Data Management

Covers long-term storage, retrieval, and security of thermal inspection records and raw image files. Proper data management supports trend analysis and liability protection.

Lesson 3 • Image Selection and Annotation

Teaches criteria for selecting representative images and applying clear, informative annotations. Well-annotated images are the primary evidence supporting each reported finding.

Lesson 4 • Quality Assurance and Peer Review

Establishes internal QA checklists and peer review processes for thermal inspection reports. Students identify and correct common errors before reports reach clients.