logo

EbookBell.com

Most ebook files are in PDF format, so you can easily read them using various software such as Foxit Reader or directly on the Google Chrome browser.
Some ebook files are released by publishers in other formats such as .awz, .mobi, .epub, .fb2, etc. You may need to install specific software to read these formats on mobile/PC, such as Calibre.

Please read the tutorial at this link:  https://ebookbell.com/faq 


We offer FREE conversion to the popular formats you request; however, this may take some time. Therefore, right after payment, please email us, and we will try to provide the service as quickly as possible.


For some exceptional file formats or broken links (if any), please refrain from opening any disputes. Instead, email us first, and we will try to assist within a maximum of 6 hours.

EbookBell Team

Dissipation And Control In Microscopic Nonequilibrium Systems Steven J Large

  • SKU: BELL-46856856
Dissipation And Control In Microscopic Nonequilibrium Systems Steven J Large
$ 31.00 $ 45.00 (-31%)

5.0

38 reviews

Dissipation And Control In Microscopic Nonequilibrium Systems Steven J Large instant download after payment.

Publisher: Springer
File Extension: PDF
File size: 7.59 MB
Pages: 239
Author: Steven J. Large
ISBN: 9783030858278, 3030858278
Language: English
Year: 2022

Product desciption

Dissipation And Control In Microscopic Nonequilibrium Systems Steven J Large by Steven J. Large 9783030858278, 3030858278 instant download after payment.

This thesis establishes a multifaceted extension of the deterministic control framework that has been a workhorse of nonequilibrium statistical mechanics, to stochastic, discrete, and autonomous control mechanisms. This facilitates the application of ideas from stochastic thermodynamics to the understanding of molecular machines in nanotechnology and in living things. It also gives a scale on which to evaluate the nonequilibrium energetic efficiency of molecular machines, guidelines for designing effective synthetic machines, and a perspective on the engineering principles that govern efficient microscopic energy transduction far from equilibrium. The thesis also documents the author’s design, analysis, and interpretation of the first experimental demonstration of the utility of this generally applicable method for designing energetically-efficient control in biomolecules. Protocols designed using this framework systematically reduced dissipation, when compared to naive protocols, in DNA hairpins across a wide range of experimental unfolding speeds and between sequences with wildly different physical characteristics.

Related Products