
This device combines multi‑frequency bioelectrical impedance analysis (BIA) with an on‑demand thermal printer to deliver immediate, printed body composition reports. The analyzer measures resistance
Inquire NowThis device combines multi‑frequency bioelectrical impedance analysis (BIA) with an on‑demand thermal printer to deliver immediate, printed body composition reports. The analyzer measures resistance and reactance at several frequencies to estimate extracellular water, intracellular water, and fat‑free mass. By integrating printing, users obtain a hard‑copy result without needing a separate PC or network connection.
| Parameter | Typical Value |
|---|---|
| Measurement Frequencies | 5 kHz, 50 kHz, 250 kHz |
| Electrode Configuration | 8‑point tactile electrodes (hand‑to‑foot) |
| Fat Mass Range | 3 % – 50 % of body weight |
| Repeatability (SD) | ±0.5 % fat |
| Printer Type | Direct thermal, 58 mm width |
| Print Resolution | 203 dpi (8 dots/mm) |
| Paper Roll Capacity | Up to 50 m (≈250 reports) |
| Power Supply | 100‑240 V AC, 50/60 Hz, 15 W max |
| Dimensions (W×H×D) | 210 mm × 95 mm × 30 mm |
| Weight | 0.45 kg |

The five‑kilohertz low‑frequency signal primarily reflects extracellular water, while the 250 kHz high‑frequency component penetrates cellular membranes, enabling separation of fat‑free mass from fat mass. Calibration against dual‑energy X‑ray absorptiometry (DXA) reference data provides a bias under 1 % across the typical adult range. Thermal printing eliminates ink cartridges, reducing maintenance and ensuring legible output even in humid environments.
These capabilities reduce uncertainty for OEM integrators by providing repeatable data, flexible connectivity, and minimal service intervention. The automatic calibration routine compensates for electrode drift, while onboard memory allows batch printing without a host device, simplifying deployment in facilities with limited IT infrastructure.
In each setting, the ability to generate a tangible report at the point of measurement improves client engagement and reduces reliance on external software, thereby lowering operational complexity and potential points of failure.
Customization is driven by the mechanical and electrical constraints of the host system; for example, electrode layout can be adjusted to fit existing handheld enclosures without altering the core measurement circuitry, preserving accuracy while meeting branding requirements.
Each analyzer undergoes a three‑stage test: (1) impedance verification using precision resistors traceable to national standards, (2) printer head resistance check to ensure consistent dot energy, and (3) functional validation with a reference phantom that simulates known fat‑free mass and fat mass values. The process follows ISO 9001:2015 guidelines, and measurement repeatability is documented for every production lot.