Capture
Observe transparent biological samples where regular imaging can miss subtle optical effects.
Matota Technologies, Inc. is developing the CSOD, a compact schlieren optical instrument designed to help researchers observe biological responses and make drug-development decisions faster.
Portable
Designed beyond the optical table
~1 µm
Transparent sample sensitivity
Bio
Thin films, tissue slices, cells
Based on compact schlieren optics described by Yimeng Tong and Jay X. Tang, the CSOD is being positioned as a practical observation tool for drug-development workflows.
Company Mission
Every inefficiency in the research workflow compounds the time patients wait for effective therapies. Matota Technologies develops tools designed to make experimental observation more efficient, so promising therapies can move forward with greater speed and confidence.
Mission
Shorten the path between scientific discovery and patient access.
Observe biological response
Compare samples clearly
Reduce observation uncertainty
Where the CSOD Fits
The CSOD is being developed for the moments when researchers need clearer observation of subtle biological and transparent-sample behavior without slowing the workflow.
Observe transparent biological samples where regular imaging can miss subtle optical effects.
Evaluate sample patterns across conditions, controls, and candidate compounds with clearer visual boundaries.
Support faster experimental calls by reducing avoidable uncertainty in the observation step.
Help strong candidates move forward sooner, bringing medical progress closer to patients.
Scientific Instrument
Conventional schlieren systems often require large optical-table setups. The CSOD is based on a compact geometry using a concave mirror, camera, point-light source, and slight reflected-image shift to make subtle density-gradient and transparent-sample patterns easier to see.
A point-light source and camera sit near the spherical origin of a concave mirror.
The sample is placed between mirror and camera, revealing density gradients or refractive-index variation.
A slight shift in two overlapping virtual images enhances image boundaries for subtle transparent effects.
Applications
Support visual assessment of human cells grown on tissue culture plates and other transparent sample systems.
Detect patterns in transparent media, including films on the order of micrometers.
A compact complement for biological imaging cases where portability and sample size matter.
Source Publication
Bio Protoc. 2026 Jan 5;16(1):e5546. Authors: Yimeng Tong and Jay X. Tang. DOI: 10.21769/BioProtoc.5546. PMID: 41523106.
Collaborate with Matota
Matota is looking to connect with research teams, biotech builders, and drug-development partners who are working where subtle biological observation can accelerate better decisions.