Camera, FMCW radar, ultrasound, and rPPG modules have different update rates and failure modes. Without explicit gates, stale frames, low light, multiple people, ambiguous radar targets, or calibration mismatch can propagate into the next measurement stage. ViScan therefore defines sensor responsibilities and state-transition conditions before combining outputs.
02
Architecture
The public system flow is Radar Presence → Face Session → AR Guide → Ultrasound Measurement → rPPG → Report → Session Reset. The BGT60TR13C supplies presence, distance, and stability information, while the camera handles face sessions, pose, exposure, occlusion, and multiple-person conditions.
03
My engineering contribution
C# WPF and Python integration for the state-driven sensing pipeline
YuNet/SFace face-session handling and MediaPipe Pose abdominal AR guidance
Low-light, low-frame-rate, occlusion, multiple-person, and stale-frame checks
Sensor fusion between BGT60TR13C presence/distance data and camera-side decisions
Fail-safe transitions for timestamp, projection, and calibration mismatches
04
Public milestones
CES 2027 Innovation Awards application submitted
ViScan booth operation and live product demonstration planned for CES 2027
Integrated test rates: radar 20.017 Hz, camera 14.696 fps, pose 14.650 Hz
Technical reports, presentations, company meetings, prior-art review, and commercialization planning completed
01Presence
BGT60TR13C presence, distance, and stability
02Session
YuNet/SFace face session
03Guidance
MediaPipe Pose and camera–radar fusion
04Measurement
Ultrasound, rPPG, report, and reset
ViScan state-based processing flow.
Korean patent application
Title
“Ultrasound-Based Smart Mirror Body Composition Analysis System” — portfolio translation of the Korean filing title
Application No.
10-2026-0154726
Filing date
August 18, 2026
Applicants
Dankook University Cheonan Campus Industry-Academic Cooperation Foundation and Hansono Co., Ltd.