Isothermal titration calorimetry (ITC) is a high resolution, label free technique that measures the heat released or absorbed when molecules interact. It directly provides binding constants, reaction stoichiometry, enthalpy, and temperature dependent behavior.

ITC uses an ultrasensitive calorimeter combined with a precision syringe that delivers controlled, minute injections into the calorimetric cell. Software driven operation enables consistent, timed titrations, and optional automation allows sampling from temperature controlled 96 well plates for high productivity, unattended workflows. Automated cleaning reduces carryover, and automated loading ensures reproducible sample delivery.

The Discovery DSC 2500 by TA Instruments Inc. is a premier, research-grade differential scanning calorimeter designed to measure thermal transitions and energy changes in materials with exceptional precision. At the heart of its performance is the proprietary Fusion Cell™ and advanced T4P Tzero® heat flow technology, which combine to deliver unmatched baseline flatness, high sensitivity, and sharp transition resolution without requiring tedious pre- or post-test data manipulation. Operating across a wide temperature range from approximately −90 to 500 °C, it excels at accurately characterizing critical material properties. Capable of determining absolute specific heat capacity in a single run and equipped with a 54-position linear autosampler for reliable, automated high-throughput testing, the DSC 2500 serves as an invaluable workstation for advanced academic research and quality control in polymer chemistry, biomaterials, and pharmaceuticals.

The Biomomentum Mach‑1 V500cSST is a high‑precision mechanical tester designed for characterization of soft biological tissues, biomaterials, and engineered scaffolds. It integrates multi-axis load cells and high-resolution positioning to perform compression, tension, shear, indentation, and surface mapping tests. The system supports programmable test protocols, dynamic loading, and automated scanning, enabling spatially resolved measurements of mechanical properties such as stiffness, viscoelasticity, and permeability. Its modular design accommodates various probes, environmental chambers, and sample types. Several probes and accessories readily available.

The KrosFlo® KR2i is a fully automated benchtop TFF system designed for seamless downstream processing. Ideal for R&D and pilot-scale applications, it delivers precise, gentle concentration and diafiltration of biologics and macromolecules. Featuring real-time pressure monitoring and fully configurable software, the KR2i optimizes product yield, prevents fouling, and ensures effortless scalability.

The PURELAB® Chorus I is a tap to ultrapure water purification system that delivers deionized water at 18.2 MΩ cm resistivity, suitable for a range of applications including polymer purification and synthesis, mass spectrometry, molecular biology, electrochemistry, atomic spectroscopy, liquid chromatography, gas chromatography, immunochemistry and general laboratory. The unit is connected to a 60 L reservoir, ensuring a continuous and reliable supply of deionized water to meet the daily needs of researchers and support uninterrupted experimental workflows.

Freeze drying (also known as lyophilization) removes solvent from a material while preserving the structure. The sample is thoroughly frozen below the triple point, before a vacuum is applied to lower the pressure. During the primary drying phase, heat is introduced to induce sublimation, causing the frozen solvent to transition directly from the solid phase to vapor, skipping over the liquid phase. This phase removes up to 95% of solvent. The adsorption phase is the second phase of drying that removes ionically bound water molecules by further increasing the temperature. Freeze drying allows materials to avoid shrinkage and better preserves the original structure. 

Micro milling machines grind small amounts of material into extremely fine powders, with particle sizes as small as 50 nm. Materials are ground by high-energy impacts and friction between the grinding balls and the walls of the grinding bowl. The three-dimensional motion generates strong centrifugal forces that cause the grinding balls to quickly move across the bowl, colliding with the material and breaking it into extremely small particles. The micro mill has two grinding stations and is best for hard, moderately hard, and brittle samples. Grinding can be performed dry, in suspension, or under inert gas. The milling machine can also be used to mix materials, homogenize emulsions and pastes, mechanically activate materials to increase reactivity, as well as for alloying.