Muhammad Ihsan Chattha Email and Phone Number

Teaching inter to post graduate classes. I am also working on number of science & technology projects. Many research projects are still underway e.g. Anticancer components in vegetables, Modifications of natural occurring compounds to use & increase their efficiency. Racemate mixtures & their medicinal effeteness. Vitamin B7 biotin modification to stop cell growth.

Mg- Al alloys is formed by Laser shock processing [LSP, metal covered by an absorbing coating (aluminium foil) and transparent constrained layer (water), is hit by a high power density (GW/cm2) short pulse (nanosecond) laser, coating technique. After the coating absorbs laser energy rapidly, ultimately forms a large number of dense high temperature (>10 K) high pressure (>1GPa)], is a surface engineering process has been regarded as a useful method to improve mechanical properties of materials. Research work was conducted for corrosion behaviour. On basis of current analysis, LSP can play a significant role in improving surface anti-corrosion; therefore there is far more necessary research space to be filled. It is proposed that LSP is a promising technique for enhancing cold & hot corrosion resistance of Mg alloys, especially for stress corrosion cracking, which will be very useful for practical applications in industries.

The main research focus of me is to discover new functional polymeric materials through advanced polymer architectures design and versatile organic chemistry approaches. Conductor-like screening model for real solvents (COSMO-RS), applied to get glycerol derivatives a new class of surfactants.In his past 15 years career was involved in several areas, including fluoropolymers for passive and active optics, low cost proton exchange membrane for hydrogen fuel cell, gas separation membrane and nanocrystals, Nano materials as adsorbent composites.Specific interests• BIOFUELS• graphene & mos2 synthesis & conductance• Novel fluorinated polymer synthesis• Novel step growth polymer synthesis• Novel high performace thermoplastics synthesis• Novel polymer carrying biological functionsIndustrial applications• Membranes• Microphotonics• Micorelectronics• Advanced polymeric materirals• super conducting materialsProjects• Antimicrobial Polymers• Materials Accelerator• Laser Photonics

Professor in Chemistry at GOVT. COLLEGE CHICHAWATNI.

I am have much potential to do research in chemistry and allied sciences. My academic qualification is up to Master of Philosophy. I enjoy good command on teaching, curriculum design. With much better teaching methods I also gain a lot of about inner of chemistry.

The manufacture of the alkyds proceeds in two stages. Pentaerythritol and vegetable oil arefirst heated with the catalyst for about two hours at 270oC. The vegetable oil is an ester of glycerol and long chain unsaturated fatty acids, and the reactonisa trans esterification, thefatty acids forming an ester with the polyhydroxy alcohol pentaerythritol. Di- and tri- estersof PE and di- and monoglycerides are alsopresumably formed. After cooling the mixture to150oC, a slight excess of phthalic anhydrideis added and the mixture is reheated to 240oC where it is held for several hours while the polyester alkyd resin is formed:

Recovery of precious metals like gold, silver, palladium platinum etc. is interesting due to its high market prices along with various industrial applications. Conventional technologies viz. ion exchange, chemical binding, surface precipitation etc. which been have been developed for the recovery of such metals are not economically attractive. Biosorption represents a biotechnological innovation as well as a cost effective excellent tool for recovery of precious metals from aqueous solutions. A variety of biomaterials are known to bind the precious metals including algae, fungi, bacteria actinomycetes, yeast etc. along with some biopolymers and biowaste materials.The metal binding mechanism , as well as the parameters influencing the uptake of precious metals and isotherm modeling are presented. This article provides an overview of past achievements and present scenario of biosorption studies carried out on the use of some promising biosorbents which could serve as an economical means for recovering precious metals. The present review also highlights the use of biosorbents in real situations and hopes to provide insights into this research frontier.

Atmosphere CO2 is converted to CO in presence of Copper catalyst at elevated temperature. CO is highly compressed & mixed with H2 gas obtained by various sources. The CO & H2 Reacts in presence of Nickel-Aluminum catalyst which transforms CO2 to methanol at high temperature. CH3OH is good fuel. It can be reduced to LiAlH4/P to methane gas.