Microfabrication for next-generation biotechnology devices

Genetic analysis relies on consistent sample preparation, extraction, amplification and detection. Integrated biochips can bring these steps closer together, reducing manual handling and the volumes of samples and reagents required.

Atomica combines microfluidic pathways, reaction chambers and patterned microarray surfaces, with thermal and optical interfaces developed around the analysis workflow and assay chemistry.

Point-of-care diagnostics bring testing closer to the patient by combining sample handling, reactions and detection in compact cartridges. The device must sequence fluids reliably and present a readable signal to the instrument.

Atomica integrates channels, valves, chambers and sensing interfaces around the assay, with material selection, surface treatments and packaging developed for the sample and readout method.

Transdermal patches and wearable or implantable delivery devices offer ways to administer therapies with greater control over where and when a dose is delivered. Their operation depends on reliable fluid movement and tissue interfaces.

Atomica combines microneedles, reservoirs, pumps, valves and membranes, developing geometry, flow control and packaging around the formulation, delivery method and mechanical requirements.

Cell analysis and therapy workflows require cells to be isolated, sorted, filtered and moved while preserving viability. Microfluidic devices can bring these operations into controlled pathways, supporting consistent sample handling.

Atomica develops channels, valves and filtration features around the cell population and process, considering flow conditions, surface compatibility and integration with detection systems.

Organ-on-chip and screening systems create controlled environments for studying cellular behavior and responses to potential therapies. These tools need to deliver nutrients, remove waste and support observation over time.

Atomica integrates culture chambers, channels, porous membranes and sensing or optical interfaces, with geometry, coatings and flow conditions developed around the biological model and research workflow.

Wearable and implantable devices bring physiological measurements and sampling closer to the body. Compact sensors must interface with fluids or tissue while connecting reliably to the electronics that collect and interpret signals.

Atomica develops diaphragms, pressure-sensing elements, sampling features and protective packages, with materials and interfaces evaluated for the intended contact conditions and device lifetime.