Any method of producing molecules is referred to as molecular engineering. It can be used to make new molecules that don't exist in nature or are stable beyond a very restricted range of conditions on a very small scale, usually one at a time. Currently, this is a time-consuming technique that necessitates manual manipulation of molecules using instruments like a scanning tunnelling microscope. Because of the capacity to control the electrical, magnetic, and optical properties of molecule-based materials by selecting and altering their chemical constituents, molecular engineering is becoming a rapidly growing area. The controlled creation of highly ordered, crystalline molecular thin films is attracting a lot of attention because of its prospective uses in areas including solid-state photonics, microelectronics and biology. Protein engineering, the generation of protein molecules, a process that occurs naturally in biochemistry, such as prion reproduction, can be thought of as a precision type of chemical engineering. It does, however, offer far more control than genetic modification of an existing genome, which must rely solely on existing biochemistry to express genes as proteins and has minimal ability to make non-proteins.
Title : Protein purification and determination
Divya Yadav, Amity University Lucknow, India
Title : Study of gene expression by RT-PCR
Shazia Syed, Amity University Lucknow, India
Title : Western blotting: Analysis of protein
Misbah Arshad, Amity University Lucknow, India
Title : Study of genetic variation analysis by RFLP
Suraj Kumar Chanda, Amity University Lucknow, India
Title : Qualitative and Quantitative analysis of protein
Shruti Gupta, Amity University Lucknow, India
Title : Extraction and quantification of long Non-Coding RNA from human blood plasma
Shreyanshi Singh, Amity University Lucknow, India