SENSORA
Molecular-Level Precision
0+
Patents Filed
0+
Nature-Level Papers
0+
Citations
0 cycles
Repeatability Verified
See It in Action
Watch how the Sensora patch seamlessly integrates into daily life — from application to real-time biomarker data on your phone.
How It Works
Wear
Apply the ultra-thin, flexible patch to your skin — designed for comfort during any activity.
Sense
MIP cavities selectively capture target biomarkers from sweat. LIG electrodes detect electrochemical signals.
Transmit
NFC wireless technology sends real-time data to your smartphone — no battery required in the patch.
Analyze
The Sensora app displays biomarker trends, health insights, and personalized recommendations.
Core Technology
Molecular Imprinting (MIP)
MIP creates synthetic antibody-like cavities that selectively bind specific molecules (e.g., uric acid, glucose, cortisol) with exceptional specificity. Unlike traditional biosensors that use biological antibodies, MIP is stable, reusable, and manufacturable at scale — enabling affordable precision diagnostics.
Template Molecule
Polymerization
Template Removal
Selective Binding
Template Molecule
Polymerization
Template Removal
Selective Binding
96% selectivity against interferents — comparable to biological antibodies
Laser-Induced Graphene (LIG)
A CO₂ laser directly converts polyimide film into porous, conductive graphene electrodes. This single-step process creates flexible, biocompatible electrodes ideal for skin contact. LIG electrodes have high surface area for sensitive electrochemical detection and can be manufactured at low cost.
Polyimide Film
CO₂ Laser Scan
Graphene Formation
Flexible Electrode
Polyimide Film
CO₂ Laser Scan
Graphene Formation
Flexible Electrode
Single-step manufacturing — 10× lower cost than traditional electrode fabrication
Performance Data
Validated through rigorous laboratory testing and peer-reviewed publications in Nature-level journals.
Achieved Detection Limit
1.17 nM
Arginine detection — lab-grade precision from sweat
Sensing Principle
Electrochemical Impedance Spectroscopy (EIS)
Nyquist plots from 3 MIP compositions validated. Sensitivity increases with crosslinker concentration.
Sensor Performance Metrics
Data from peer-reviewed publications in Nature Catalysis, ACS Sustainable Chemistry & Engineering, JACS, and Reaction Chemistry & Engineering. 2,000+ citations.
Technical Specifications
Use Cases
Sports Performance
Lactate · Electrolytes · Hydration
Chronic Disease Management
Glucose · Uric Acid · Cortisol
Occupational Health
Fatigue Biomarkers · Alerts
Clinical Research
Continuous · Non-invasive
Market Opportunity
Sensora targets the intersection of high-value, low-competition segments in the global wearable biosensor market.
12%+ CAGR · $7.8B+ in 2024
Development Roadmap
Phase 1: R&D
Prototyping, lab testing, academic collaborations (0–12 months)
Phase 2: Vertical
Sports wearables, health management go-to-market
Phase 3: Platform
Multi-molecule targets, SaaS layer, licensing
Angel / Pre-Seed Round
$300K target · 60% prototyping & testing · 20% validation · 20% team & IP
Sensor FAQ
Currently, the sensor is designed to detect cortisol, glucose, lactate, uric acid, and electrolytes from sweat. Our MIP technology can be customized to target additional biomarkers based on research or enterprise needs.
Yes. The sensor uses a thin, flexible substrate that conforms to your skin. It is lightweight (under 5g), breathable, and designed for extended wear during exercise, sleep, or daily activities.
Each disposable sensor patch is designed for 7-14 days of continuous use. The reusable electronics module has a battery life of approximately 72 hours per charge.
Our peer-reviewed research demonstrates detection limits in the nanomolar range with over 30 cycles of repeatability verified. The MIP+LIG combination achieves lab-grade sensitivity in a wearable form factor.
Yes. The sensor transmits data via Bluetooth Low Energy (BLE) to the Sensora companion app on iOS and Android. The app provides real-time biomarker dashboards, trend analysis, and personalized health insights.