SigmaVision®
Global shutter, capacitive imaging at high performance report rates. AI and machine learning applications benefit from access to high-fidelity information with a high frame rate for reporting.
SigmaSense For Interactive Display
Powering Interactive Displays with AI Intelligence
Continuous, high impedance sensing delivers radically intuitive experiences
SigmaSense SDC300
Touch and touch-less enabled interactivity that overcomes the barriers of thinner stacks and high capacitive loads with continuous, high impedance sensing. Achieves higher sensitivity, ultra-fast report rates, and superior signal-to-noise ratios at minimal drive voltages across a range of display types, forms and factors. SDC300 is now production ready.
Download product briefPowering the future of display performance
Create radically improved interactive experiences
This unique technology delivers extraordinary levels of sensing speed, accuracy, resolution, and noise immunity, opening the door to a new era of human-centered innovation powered by limitless touch and touch-less solutions, immersive experiences, and endless innovative applications.
Suitable for these solutions:
News
SigmaSense AI Touch Powers Zebra’s Next Generation Windows Rugged Tablets
AUSTIN, Texas – September 17, 2024 – SigmaSense, the global leader in high-precision sensing, today announced that Zebra Technologies has enabled its new ET60W/ET65W (ET6x) Windows Rugged Enterprise Tablets with SigmaSense AI Touch sensing. Zebra is the first rugged enterprise […]
Read the articleKey Features
This novel, self-biased simultaneous drive and sense implementation encompasses all 4 primary analog and digital functions (AFE, ADC, DAC, and DSP) integrated into each channel, on a single pin.
SigmaInk®
Active pen with two buttons, 1024 to 4096 pressure levels, and support for up to four pens. Continuous sensing allows active pen and touch sensing simultaneously without time-domain multiplexing.
Product Development
SigmaDrive architecture operates continuously on all channels, reducing the impact of system timing constraints. This not only boosts performance but also simplifies sensor design, eliminating the need for uniform impedance sensors and equal-length traces.
