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Kanomax 6113 Intelligent Thermal Anemometer

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Brand Kanomax
Origin Japan
Model 6113
Instrument Type Thermal Anemometer
Resolution 0.1 m/s
Measurement Range 0.1–50.0 m/s
Accuracy ±(3% of reading + 0.1) m/s
Operating Temperature 0–100 °C
Operating Humidity 5–80 %RH (accuracy degradation applies outside this range)
Temperature Measurement Range 0–100 °C
Temperature Accuracy ±1 °C
Pressure Measurement Range (optional probe) –5 to +5 kPa
Pressure Accuracy ±(3% of reading + 0.01) kPa
Data Storage Capacity 100 sets
Communication Interface RS-232C (standard), analog output 0–1 V (optional)
Built-in thermal printer Yes
Power Supply 6 × AA batteries
Dimensions 210 × 120 × 133 mm
Weight 1.0 kg

Overview

The Kanomax 6113 Intelligent Thermal Anemometer is a precision-engineered environmental monitoring instrument designed for reliable, real-time measurement of air velocity, temperature, and differential pressure in HVAC systems, cleanrooms, industrial ducts, and laboratory ventilation applications. Utilizing constant-temperature anemometry (CTA) — a well-established thermal sensing principle — the device maintains a heated sensor element at a fixed temperature above ambient; airflow-induced cooling is quantified to derive velocity with high linearity and low drift. Its modular architecture separates the main unit from interchangeable hot-wire or hot-film probes, enabling field-replaceable components without recalibration downtime. Engineered for robustness, the 6113 features an IP54-rated enclosure suitable for use inside ductwork, fume hoods, and other semi-harsh environments where condensation, dust, or mechanical vibration may occur.

Key Features

  • Modular design with fully interchangeable probes and main units — ensures operational continuity during maintenance or failure
  • Simultaneous acquisition of air velocity, temperature, and (with optional pressure probe) differential pressure — all stored as synchronized data sets
  • Large backlit LCD display with intuitive icon-based interface — supports rapid interpretation under variable lighting conditions
  • Single-button operation for printout, data logging, and calculation functions — minimizes training requirements and operator error
  • Integrated thermal printer — provides immediate hard-copy records compliant with GLP documentation practices
  • Standard RS-232C serial interface — enables direct connection to PCs, PLCs, or data loggers for automated reporting and long-term trend analysis
  • Built-in temperature compensation circuitry — maintains measurement stability across 0–100 °C operating range, with optimal accuracy (±1 °C) maintained between 10–40 °C

Sample Compatibility & Compliance

The Kanomax 6113 is validated for use with standard cylindrical and flat-plate thermal probes (e.g., 6113-01, 6113-02), compatible with laminar and turbulent airflow profiles typical of ducted and open-space environments. It meets IEC 61000-4 electromagnetic compatibility standards and conforms to JIS B 7554 (Japanese Industrial Standard for anemometers). While not certified for intrinsic safety, its battery-powered operation and non-sparking design make it suitable for non-hazardous classified areas per NEC Class I, Division 2 guidelines. The instrument supports audit-ready workflows: timestamped data storage, printer logs, and RS-232 traceability align with ISO/IEC 17025 documentation requirements for accredited calibration laboratories.

Software & Data Management

Data captured by the 6113 is stored locally in non-volatile memory (100 measurement sets maximum), each containing wind speed, temperature, pressure (if equipped), date/time stamp, and user-defined ID tags. The RS-232C port supports ASCII protocol for seamless integration with third-party software including LabVIEW, MATLAB, and custom SCADA platforms. Optional analog output (0–1 V) allows connection to chart recorders or building management systems (BMS) without digital interfacing. Firmware supports firmware-upgradable functionality via serial command set, ensuring long-term compatibility with evolving data governance frameworks such as FDA 21 CFR Part 11 (when paired with validated PC software and electronic signature controls).

Applications

  • HVAC commissioning and balancing — verification of supply/return air velocities against ASHRAE 111 and ISO 16813 specifications
  • Cleanroom certification — ISO 14644-3 airflow uniformity mapping and ISO 14644-1 classification support
  • Industrial exhaust system validation — capture velocity profiles across stack cross-sections per EPA Method 2
  • Pharmaceutical facility environmental monitoring — continuous airflow verification in Grade A/B critical zones
  • Academic aerodynamics research — low-turbulence flow characterization in wind tunnels and boundary layer studies
  • Energy audit assessments — duct leakage quantification using traverse-based velocity integration

FAQ

What probe types are compatible with the Kanomax 6113?

The 6113 accepts Kanomax’s standardized thermal probes, including the 6113-01 (cylindrical hot-wire) and 6113-02 (flat-plate hot-film), both calibrated traceably to NMIJ (National Metrology Institute of Japan).
Does the 6113 require periodic factory recalibration?

Yes — annual recalibration is recommended per ISO/IEC 17025 and manufacturer guidelines to maintain stated accuracy; field zero-checks can be performed using still-air reference.
Can the built-in printer generate ISO-compliant test reports?

The thermal printer outputs raw measurement values with timestamps and probe IDs; full ISO-compliant reports require post-processing in validated software that adds metadata, operator signatures, and uncertainty budgets.
Is the 6113 suitable for outdoor use?

It is rated IP54 — protected against dust ingress and water splashes — making it appropriate for covered outdoor applications but not for prolonged rain exposure or sub-zero temperatures below 0 °C.
How is measurement uncertainty calculated for velocity readings?

Combined standard uncertainty is derived from Type A (repeatability) and Type B (calibration certificate, resolution, temperature compensation drift) components, typically yielding an expanded uncertainty (k=2) of ±(4.5% of reading + 0.15) m/s under controlled lab conditions.

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