Übersetzung für "Flow chemistry" in Deutsch

Examples of ReactIR value in continuous flow chemistry include:

Flow chemistry has been used for decades in the chemical industry.

In contrast, the flow chemistry process developed at the Max Planck Institute of Colloids and Interfaces is comparable to an assembly line system.

Researchers are increasingly using continuous flow chemistry to develop new reactions and processes with increased specificity, yield and product quality.

Another growing use for continuous flow chemistry is to control stereochemistry, since reaction variables can be more carefully adjusted to control epimerization.

Pumping liquids at low temperatures may be required in flow chemistry or in various applications involving liquefied gases.

The inherent increased safety, improved product quality, cost efficiency, and overall production flexibility are drivers for the growing use of continuous flow chemistry.

When coupled with process analytical technology (PAT), flow chemistry allows for rapid analysis, optimization, and scale-up of a chemical reaction.

In analytical chemistry, flow injection analysis (FIA) is known as an automated process for detecting specific substances in a sample and for determining their respective concentrations.

Using flow chemistry technology, the researchers at the Institute can now produce a variety of standard ingredients with much greater efficiency and more cost-effectively than with conventional methods.

The basis for the new approach is the application of so-called continuous flow chemistry in microreactors, in which the reactions no longer take place in a stirred tank but react with each other during the flow of the microchannels.

Flow chemistry is used for reactions where starting materials are in limited supply and small scale reactions are preferable.

Recently, a new FTIR spectrometer was introduced that is ideal for monitoring continuous flow chemistry in real time.

Molecules 21.7 (2016): 918.This paper describes how to use flow chemistry to for increased safety and continuous manufacturing to determine optimum condititions for the formation of diazonium compounds.

The utility of the application of continuous processing with various process analytical technologies is discussed, as well as case studies on developing flow chemistry processes.

In recent years, the number and types of reactions that performed with continuous flow chemistry have grown substantially, especially in pharmaceuticals, fine chemicals, green chemistry, catalytic reactions, and polymer chemistry .

A dedicated ReactIR Fourier Transform Infrared Spectroscopy (FTIR) instrument for in situ, real-time monitoring of continuous flow chemistry, enables researchers to save valuable time and materials when screening and optimizing their reactions.

In this research, scientists showed for the first time the capability for continuous flow chemistry to perform a catalytic asymmetric transfer hydrogenation reaction.

New technologies such as flow chemistry and innovative membrane processes are used in addition to traditional thermal separation techniques supplemented by innovative measurement and regulation technology (Industry 4.0) in order to image entire process chains from the very beginning through to the final product.

When flow chemistry is analyzed with ATR-FTIR, each functional group of a given substance has a unique fingerprint which can be trended over time and provides continuous measurement of component concentration as a function or process conditions.

In collaboration with leading scientists in continuous flow chemistry*, we have engineered an optimized flow cell for this important application.