Global Anti-static Additives Market Professional Survey Report 2018

This report studies Anti-static Additives in Global market, especially in North America, China, Europe, Southeast Asia, Japan and India, with production, revenue, consumption, import and export in these regions, from 2013 to 2018, and forecast to 2025.

This report focuses on top manufacturers in global market, with production, price, revenue and market share for each manufacturer, covering

DuPont

AzkoNobel N.V.

Deuteron

Cytec Industries Inc.

BASF

A.Schulman

Arkema

3M Company

Croda Polymers

Ampacet Corporation

Evonik

Sanyo-chemical

BYK Additives & Instruments

Foster Corp.

PolyOne

Sabo

FERRO-PLAST Srl

Solvay

Premix

MECO GMBH

Deuteron GmbH

Julichemical

Lin'an Yongsheng Plastic Chemical Factory

Shijiweiye

Adeka-palmarole

On the basis of product, this report displays the production, revenue, price, market share and growth rate of each type, primarily split into

Glycerol Monostearate

Ethoxylated Fatty Acid Amines

Alkyl Sulfonates

Others

By Application, the market can be split into

Paints & Coatings

Electronics & electricals

Healthcare

Building & construction

Packaging

Other

By Regions, this report covers (we can add the regions/countries as you want)

North America

China

Europe

Southeast Asia

Japan

India

If you have any special requirements, please let us know and we will offer you the report as you want.

Microbial Factories To Produce Environmentally Friendly Products

Production of environment-friendly ammonia, gasoline, biodegradable plastics, and biodiesel fuels is no more a far-fetched idea. Utilizing light-powered, carbon dioxide consuming nano bio-hybrid organisms can make this a reality soon. Scientists of the University of Colorado Boulder created a living microbial factory, which can eat and change carbon dioxide into functional products such as biodegradable plastics and gasoline. The technology makes use of light-activated quantum dots, which are capable of firing certain enzymes inside the microbial cells. Assistant professor at the University of Colorado Boulder and lead author of the study, Prashant Nagpal, said that this innovation bore testimony to the power that can be wielded by the biochemical processes. The researchers were looking for a procedure that would better the capture of carbon dioxide, and help them fight against climate change. In addition to that, the researchers hoped that someday such a technique could potentially make a replacement of carbon-intensive manufacturing process for fuels and plastics. The program was incepted a long time ago, in 2013 when the scientists were looking for various applications of nanoscopic quantum dots. During the research, the scientists explored ways to determine if quantum dots are able to trigger certain enzymes inside microbial cells. They also explored if such triggering could change airborne nitrogen and carbon dioxide into some useful products or not.  

The global market for nanomagnetic devices market is expected to reach $13.27 Billion by 2025

Research activities have always been swift in the area of finding ways to manufacture electronic devices that are smaller, cheaper, and faster than their predecessors. Reducing the size of transistors in conventional electronic technology (CMOS) has been one of the most tried and trusted approach to produce such devices. However, owing to the laws of physics, transistor sizes cannot be reduced below a certain size, compelling researchers to find alternatives capable of either replacing or augmenting CMOS capabilities. Ongoing research and some very successful applications point towards nanomagnetic devices as the much required alternative. Crystal Market Reports, in one of its recent research reports, states that the global market for nanomagnetic devices will exhibit a promising 6.98% CAGR over the period between 2016 and 2025, rising from a valuation of nearly $7.2 Billion in 2016 to $13.27 Billion by 2025.

AI In Biomedical Imaging For Low-Cost Optoacoustics

Researchers from the University of Zurich and ETH Zurich joined hands to use machine learning methods for improving biomedical imaging. But, the technique is new and they need to do more. So far, scientists have used it for diagnosing cancer, studying brain activity and visualizing blood vessels. And, this imaging is set to improve in the future. But, the quality of images depended on sensors – their number and distribution. Using more sensors meant getting better image quality. So, ETH researchers aimed at removing this more the better requisite. And, thus, the new approach, allows for use of fewer sensors and does not compromise on the quality. Thus the achievement includes high-quality images at low cost, leading to improved diagnosis. There isn’t a lot of difference between optoacoustic and ultrasound imaging. In the latter, ultrasound waves introduced into the body and through the reflection scientists create the image. In the former, they shoot laser pulses into the body, which convert to ultrasonic waves to provide an image.