Motion Systems
Design XY/Z motion, stages, actuators, bearings, encoders, transmission elements, stiffness, dynamics, homing, repeatability, and positioning architectures.
Mechanical & Mechatronic Design
Mechanical design for precision scientific instruments
We develop the mechanical architecture needed to turn demanding assays and workflows into reliable instruments, integrating motion, thermal control, fluidics, optics, sensors, structures, and serviceability as one machine.
Capabilities
From precision mechanisms to complete instrument integration
Thermal Systems
Engineer heating, cooling, thermal cycling, uniformity, insulation, heat paths, sensors, interfaces, and the physical plant needed for stable control.
Fluidics & Dispensing
Integrate pumps, valves, tubing, manifolds, syringes, pressure paths, precision dispensing, wash paths, and disposable interfaces into the instrument.
Optics & Sensor Integration
Create stable mechanical interfaces for imaging, illumination, detectors, optical paths, alignment, focus, vibration control, and calibration.
Structures, Enclosures & Service
Design frames, covers, access points, cable routing, safety features, serviceability, ergonomic interfaces, and packaging around the working machine.
Tolerance, GD&T & DFM
Use tolerance analysis, GD&T, materials, manufacturing processes, assembly strategy, and DFM to preserve performance from prototype through production.
Machine-level integration
Precision comes from the whole mechanical system, not one component.
Motion accuracy, thermal stability, fluidic performance, optical alignment, structural stiffness, and manufacturability interact. We design those interactions deliberately so the instrument performs outside the CAD model and across real builds.
Paska Scientific