The visual ergonomics evaluation module can conduct human-machine ergonomics analysis based on the visual environment, and can be used for industrial design of cockpit interior decoration, cockpit environment design, human factors approval and evaluation of cockpit, and architectural indoor light environment ergonomics design. It establishes a simulation platform that can simulate the color environment close to real human vision, and uses advanced simulation evaluation technology to achieve optical integrated virtual design for visual ergonomics analysis, further improving human-machine ergonomics analysis, so that the overall effect of products, cabins, systems, etc. can be foreseen in the conceptual design stage, and unnecessary optical safety hazards can be eliminated.
Visual ergonomics evaluation moduleBased on visual environment, human-machine efficiency analysis can be carried out, which can be used for industrial design of cockpit interior decoration, cockpit environment design, human factor approval and evaluation of cockpit, and ergonomic design of indoor lighting environment in buildings. A simulation platform that can simulate a color environment close to real human visual perception can be established, and advanced simulation evaluation technology can be used to achieve optical integrated virtual design for visual efficiency analysis, further improving human-machine efficiency analysis. This enables the overall physical effect of products, cabins, systems, etc. to be foreseen in the conceptual design stage, and eliminates unnecessary optical safety hazards.
The system can perform discomfort glare analysis, including car interior glare analysis, aircraft cockpit glare analysis, environmental lighting glare analysis, etc;The system can perform imaging simulation and analyze comfort indicators, such as simulating aircraft cabin reading lights and conducting comfort analysis;The system mainly analyzes the coupling effect of various lighting energies such as ambient light brightness, display interface background light brightness, and display character brightness. Visual contrast is used as a quantitative evaluation parameter to set the threshold value of display interface readability, thereby achieving quantitative analysis of visual efficiency;Analyze the readability and visibility of the display based on the selected cockpit scheme under daytime conditions;Analyze the readability and visibility of the display based on the selected cockpit scheme in nighttime urban lighting environments;Analyze the readability and visibility of the display based on the selected cockpit scheme in special lighting environments;Analysis of the readability and visibility of the display based on the selected cockpit scheme in the dark interior lighting environment at high altitude at night
The ErgoLAB human-machine environment synchronization cloud platform can synchronously collect and comprehensively analyze multidimensional data from humans, machines, and environments, including eye tracking, physiological measurements, biomechanics, electroencephalography, brain imaging, behavior, human-computer interaction, action posture, facial expressions, subjective evaluation, spatiotemporal behavior, simulators, physical environments, etc., providing complete data indicators for scientific research and applications. The platform can complete a complete experimental and evaluation process, including project management - experimental design - synchronous acquisition - signal processing - data analysis - artificial intelligence application - visual reporting, supporting group testing based on cloud architecture technology and big data cloud management.