Bring your catalyst laboratories into the digital age with automation and digitalization.
In catalysis R&D acceleration, standardization and digititalization are pivotal for the development of ecologic and economic chemical production processes of e.g. chemicals, polymers, polyolefins, rubbers.
Chemspeed provides high throughput and high output solutions which accelerate, standardize and digitize your R&D without compromise in areas such as:
Highly innovative technologies allow mimicking virtually any workflow in a fully automated way. This saves precious time and increases output and quality of your lab dramatically, by using concepts designed for chemists by chemists.
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Chemspeed's FLEX POWDERDOSE with its proprietary overhead gravimetric solid dispensing / dosing (mg to g) and our user-friendly software allow you to automatically dispense virtually any powder / solid and extrudate into any type of destination.
Automated gravimetric solid dispensing / dosing - precision, accuracy, speed, data integrity (incl. applications in GMP environments).
Gravimetric pick & decision dispense of solids (matrix-to-matrix) - paradigm shift in solid / powder distribution / reformatting.
Step-change in end-to-end DSC sample preparation - gravimetric pick & decision dispense of solids / matrix-to-matrix reformatting.
Step-change in end-to-end NMR and LCMS sample preparation - gravimetric pick & decision dispense of solids / matrix-to-matrix reformatting, dissolution and online / offline NMR and / or LC-MS (incl. applications in GMP environments).
Paradigm shift in catalyst screening - gravimetric pick & dispense of ligands, catalyst precursors, catalysts.
Automated, parallel library synthesis / lead optimization in drug discovery (medicinal chemistry).
Automated, parallel library synthesis and reaction screening with online benchtop NMR (e.g. automated synthesis, online characterization, data analysis, AI / ML closed loop).
High throughput library synthesis of organics, inorganics, and hybrid materials in disposable glass vials and / or reusable double-jacket reactors and / or microwave reactors and / or photochemical glass reactors with mixing, heating, refluxing, cooling, vacuum, inert gas.
Parallel heterogeneous catalyst preparation by automated versatile impregnation such as incipient wetness, excessive liquid impregnation. You certainly face challenges in manual catalyst preparation by impregnation like:• Lack in quality and reproducibility• Lack in systematic diversity for optimization & innovation• Increasing constraints by environmental impacts and corresponding regulations
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The design and discovery of porous materials have become a central theme in materials science, driven by their applications in gas storage, separation, carbon capture, and catalysis. Rapid advances in synthetic chemistry, particularly in metal–organic frameworks, porous organic cages, and conjugated microporous polymers, have enabled the generation of increasingly large and diverse material libraries.
Pharmaceuticals increasing complexity requires longer synthesis with unique processes for each step, increasing the number of experiments to develop robust sustainable processes. The time to develop these processes is getting shorter, and automation can support the growing need to efficiently perform more experiments.
Covalent organic frameworks (COFs) are versatile materials platforms for precise function integration owing to their high crystallinity, large surface areas, tunable characteristics and diverse and predictable structures. However, the dominant solvothermal method for COF synthesis requires harsh conditions, including high temperatures, toxic organic solvents, sealed and pressurized reactors, and extended reaction times that often exceed several days.
Autonomous laboratories, also known as self-driving labs, have emerged as a powerful strategy to accelerate chemical discovery. By highly integrating different key parts including artificial intelligence (AI), robotic experimentation systems and automation technologies into a continuous closed-loop cycle, autonomous laboratories can efficiently conduct scientific experiments with minimal human intervention.
Self‑driving laboratories are transforming scientific research by combining AI, robotics, and automation to design, run, and analyze experiments autonomously.
Ruthenium oxides (RuOx) are promising alternatives to iridium catalysts for the oxygen-evolution reaction in proton-exchange membrane water electrolysis but lack stability in acid. Alloying with other elements can improve stability and performance but enlarges the search space.
From innovation to quality, Chemspeed delivers automation & digitalization that grows with your lab.
Chemspeed is a global team committed to enable automated and digitalized workflows for scientists in R&D and QC.
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