This company develops co-processors utilizing biological neurons as an alternative to traditional silicon-based computing. Their neuron systems offer adaptable architecture, stable power consumption, and high fault tolerance compared to fixed transistor systems. These bio-processors are applied across security, military, and agriculture sectors for advanced sensory detection and analysis.
Funding
$37M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
IIPCFounders
Product
Problem
Current odor detection systems often lack the sensitivity and adaptability required for complex applications such as security screening, military threat detection, and agricultural quality control. Traditional silicon-based sensors can be energy-intensive, prone to failure, and limited in their ability to identify a wide range of volatile organic compounds.
Solution
Koniku develops a neurocomputation platform that combines biological neurons with silicon microchips to create highly sensitive and adaptable odor detection systems. This "brain-on-chip" technology leverages genetically engineered olfactory receptors to detect and identify specific volatile organic compounds with greater accuracy and lower energy consumption than conventional methods. The platform offers a simplified and transparent approach to programming neurons with DNA, enabling the creation of customized biosensors for a variety of applications. By integrating the computational power of silicon with the sensory capabilities of biological systems, Koniku aims to provide real-time solutions for complex detection challenges.
Target Audience
Koniku's primary customers include organizations in the security, military, and agriculture sectors seeking advanced odor detection capabilities for applications such as explosive detection, IED detection, and quality assurance.
Features
- Integration of living neurons with silicon chips for enhanced odor detection
- Genetically programmable receptors for detecting a wide range of volatile organic compounds
- High sensitivity and low power consumption compared to traditional sensors
- Patch clamp quality signals of neuron spiking
- DNA/Nucleic Acid based attachment of neurons to electrodes
- Ground based and airborne/mobile system form factors
- Long cell lifespan, with lab neurons kept alive and fully functional for up to 2 years