Reliance Industries Limited

Council of Scientific & Industrial Research

Other

National Mineral Development Corporation Limited

Indian Petrochemical Corp. Ltd.

Indian Petrochemicals Corporation Limited

Central Salt and Marine Chemicals Research Institute

Raksh Vir Jasra

Ajit Behari Mathur

Nagesh Sharma

Krishna Renganath Sarma

Uma Sankar Satpathy

Satya Srinivasa Rao Gandham

Kalpana Gopalakrishnan

Hari Chand Bajaj

Ramesh Bhujade

Kshudiram Mantri

Prakash Kumar

Rajesh Shantilal Somani

Ajay Kumar

Chidambaram Mandan

Ninad Deepak Ingle

Pradip Munshi

Viralkumar Patel

Pradeep Paresh Kapadia

Yogesh Popatrao Patil

Haresh Mahipatlal Mody

Veera Venkata Satya Bhaskara Sita Rama Murthy Katravulapalli

Satish Kumar

Nanubhai Fuljibhai Patel

Jince Sebastian

Gaurang Manilal Mehta

Anilkumar Mettu

Mahuya Bagui

Chintansinh Dharmendrasinh Chudasama

Pushpito Kumar Ghosh

Jatin Rameshchandra Chunawala

Suresh Chandra

Suketu Vakil

Vijay Shivaji Kadam

Kalpeshkumar Bhikhubhai Sidhpuria

Nettem Venkateshwarlu Choudary

Beena Tyagi

Sunil Agrahari

Kamlesh Kumar

Dipti Jivanbhai Barochiya

Amit Kumar Punamchand Shah

Yogini Maheshbhai Amin

Devendra Lalijibhai Ghelani

Hemal Narendrakumar Ranpara

Rukhsana Ilyas Kureshy

Noor-ul Hasan Khan

Pravinchandra Mahasukhray Oza

Yogiraj Mansukhlal Badheka

Jayalekshmy Ayyer

Sunil Peter

Jayesh Prafullachandra Vora

Gurudatt Krishnamurthy

Shashank Dehade

Sudip Kumar Sarkar

Dinesh Kakkar

Mandan Chidambaram

Sodankoor Garadi Bhat

Maharaj Kishen Dhar

Keshav Rao

Manish Kumar Mishra

Arvindkumar Balvantrai Boricha

Vikram Vinodrai Thakkar

Jatin Rameshchandra Chunnawala

Kalpana Gopalakrishna

Supriya Apegaonkar

Ashishkumar Indravadan Parekh

Santanu Dasgupta

Venkatesh Prasad

Surendra Pratap Singh

Ram Sajeevan Shukla

Badrish Ranjitlal Soni

Nagarathinam Shenbaga Murthy

Pralhad Ambadas Ganeshpure

Vijayalakshmi Ravi Puranik

Dipak Balvantrai Shukla

Vishal Jitendrabhai Mayani

Sayed Hasan Razi Abdi

Virendra Bhikhabhai Patel

Padmavathi Garimella

ViralKumar Patel

Krishna Renganath Sharma

Mayur Navinchandra Talati

Lintoan John

Srinivasarao Pothuru

Jyotindra Bachubhai Patel

Mitul Sureshchandra Sheth

Elango Subramanyam

Sumeet Kumar Sharma

Yogesh Suresh Niwate

Manjeet Singh Choudhary

Shashank Dattatraya Vaidya

Pankaj Upadhyay

Sharad Vasudeorao Lande

Sreedharan Unnikrishnan

Syed Hasan Razi Abdi

Piyush Vyas

Santosh Agrawal

Anjani K Bhatt

Rajeev Kumar Gupta

Rajesh J Tayade

Niraj Rameshchandra Vyas

An adsorbent composition for reducing impurities of heat transfer fluids is provided and a process for the preparation of the same. The adsorbent composition comprises a layered double hydroxide in an amount in the range of 15 to 70 wt % of the total mass of the composition; alumina in an amount in the range of 30 to 85 wt % of the total mass of the composition; and optionally activated bauxite in an amount in the range of 15 to 50 wt % of the total mass of the composition. The adsorbent composition is economical and eco-friendly, having feed processing capacity in the range of 58 to 600 gm/gm.

Adsorbent composition and a process for preparing the same

An adsorbent composition for removing chlorides from hydrocarbon includes an adsorbent matrix and a metallic component. The metallic component forms an intimate complex with the adsorbent matrix. The adsorbent composition is characterized by pore size in the range of 20 &#x212b; to 120 &#x212b;. It is found that the amount of chlorides removed by the adsorbent composition from the hydrocarbon is in the range of 0.020 wt. % to 0.047 wt. %.

Adsorbent composition for the removal of chlorides from hydrocarbon

The present disclosure relates to a process to reduce total acid number (TAN) of a heat transfer fluid. The process comprises contacting the heat transfer fluid with an adsorbent composition at a temperature in the range of 50&#xb0; C. to 350&#xb0; C. and a pressure in the range of 1 bar to 10 bar to obtain a treated heat transfer fluid having total acid number (TAN) in the range of 0.003 to 0.03 and pH in the range of 6 to 7.5, wherein the adsorbent composition is provided in a fixed bed and the heat transfer fluid is passed through the fixed bed comprising the adsorbent composition at a liquid hourly space velocity (LHSV) in the range of 0.5 per hour to 10 per hour.

Process for reducing total acid number of heat transfer fluid

The present disclosure is in the field of chemical sciences. The present disclosure relates to a process for removal of anion from aqueous solution. The process involves removal of sulphate ion from aqueous solution using cation and organic solvent that enables precipitation of the sulphate ion from the aqueous solution. The process is simple, efficient, cost-effective, ecofriendly, enables recovery of sulphate ions, calcium ions as calcium sulphate with high purity and also enables the recovery of organic solvent in the range of about 88% to about 99%.

Process for removal of anion from aqueous solution

The present disclosure relates to a reforming catalyst and a process for preparing the same. The acidic functionality of the catalyst is suppressed by using a chloride free alumina and coating the chloride free alumina with Group V B metal oxide in the catalyst, which helps in minimizing the cracking reactions and achieving higher selectivity for liquid hydrocarbons and aromatic hydrocarbons.

Reforming catalyst and a process for preparation thereof

The present disclosure relates to a reforming catalyst composition comprising a spherical gamma AIOsupport; at least one Group VB metal oxide sheet coated on to the AIOsupport; and at least one active metal and at least one promoter metal impregnated on the AIOcoated support. The reforming catalyst composition of the present disclosure has improved activity, better selectivity for total aromatics during naphtha reforming and results in less coke formation. The reforming catalyst composition has improved catalyst performance with simultaneous modification of acidic sites as well as metallic sites through metal support interaction. The acid site cracking activity of the catalyst is inhibited because of the use of chloride free alumina support modified with solid acid such as Group VB metal oxide and impregnated with active metals. The present disclosure provides a process for naphtha reforming in the presence of the reforming catalyst composition of the present disclosure to obtain reformates of naphtha.

Reforming catalyst and a method of preparation thereof

The present disclosure provides a Ziegler-Natta catalyst composition for preparing polymers of ethylene monomers having ultrahigh molecular weight, said composition comprises (i) a pro-catalyst component containing a reaction product of a magnesium containing compound and a titanium containing compound, characterized in that said pro-catalyst component comprises magnesium, titanium and chlorine in an amount ranging between 15 and 18 mole %; 20 and 23 mole %; and 60 and 64 mole %, respectively, all proportions being with respect to the total weight of the Ziegler-Natta catalyst composition; (ii) a co-catalyst component; and (iii) at least one external electron donor compound selected from the group of organosilane compounds having the general formula (I), wherein R, R, Rand Rare all the same or all are different, or some are the same, and are individually selected from the group consisting of linear or branched alkyl groups, cycloalkyl groups, aryl groups, alkoxy and aryloxy groups. 

Heterogeneous Ziegler-Natta catalyst composition, a process for its preparation and a process for polymerizing olefin using the same

The present disclosure relates to a sulphur containing additive for bitumen paving mixtures. The sulphur containing additive comprises sulphur, a mixture of metal oxides, and optionally 5 at least one metal sulphate. The mixture of metal oxides includes calcium oxide, silicon dioxide, aluminum oxide and ferric oxide.

Sulphur containing additive for making bitumen paving mixtures

The present disclosure relates to a process for the preparation of high strength and high modulus polyethylene products/laminates consisting of steps such as providing a pre-dried, at least 50% disentangled ultra-high molecular weight polyethylene (UHMWPE) powder, feeding the UHMWPE powder having temperature ranging from &#x2212;15&#xb0; C. to 50&#xb0; C., at the nip of at least one pair of heated, polished counter rotating calendaring rollers, rotating at different roller speeds to obtain at least one pre-laminate and hot stretching the pre-laminate(s) at a pre-determined temperature and pre-determined stretching speed to obtain high strength laminates. The laminates provided by the present disclosure have tensile strength ranging between 0.5 GPa and 3.0 GPa and tensile modulus ranging between 40 GPa and 200 GPa.

High strength polyethylene products and a process for preparation thereof

The present disclosure provides a process for preparing a hydrocarbon fuel from waste rubber. The process involves admixing, in a reaction vessel, at least one fluid medium with the waste rubber to obtain a slurry; wherein the concentration of the waste rubber in the slurry ranges from 45% to 70%. A reactor is charged with the slurry and a predetermined amount of at least one catalyst composition to obtain a mixture, followed by introduction of hydrogen to the reactor to attain a predetermined pressure and heating the mixture at a predetermined temperature, to attain an autogenously generated pressure, and for a predetermined time period to obtain a reaction mass comprising the hydrocarbon fuel. This reaction mass comprising the hydrocarbon fuel is then cooled to obtain a cooled reaction mass. The hydrocarbon fuel is then separated from the cooled reaction mass.

Process for preparation of hydrocarbon fuel from waste rubber

A process and system for modifying heterogeneous catalysts by contacting them with chemical compounds to functionalize the surface of the heterogeneous catalyst. A polymetallic catalyst including bimetallic catalyst is functionalized on its surface by employing a precursor of an inorganic compound. The precursor of the inorganic compound is an organometallic compound, and the metal based inorganic compound is aluminum oxide. A process and system for surface modification functionalization of the heterogeneous catalysts at conditions including room temperature and atmospheric pressure.

Modified heterogeneous catalyst

The present disclosure provides a process for the chlorination of polyvinyl chloride. PVC obtained during the suspension polymerization reaction is directly used for chlorination without filtration, drying and re-slurrying. The present process is carried out in the absence of additional chemicals/reagents; also reheating during the chlorination reaction is not required. CPVC manufactured using the process of the present disclosure has whiteness index greater than 85, yellowness index lower than 4 and thermal stability in the range of 300 to 550 seconds at 210&#xb0; C.

Process for manufacturing chlorinated polyvinylchloride

The present disclosure relates to a process for preparing a catalyst. The process comprises coating zeolite gel over the alumina support to obtain a chloride free zeolite gel coated alumina support, crystallizing the chloride free zeolite gel coated alumina support, washing, drying and calcining the crystallized zeolite coated alumina support to obtain a calcined crystallized chloride free zeolite coated alumina support, treating the calcined crystallized chloride free zeolite coated alumina support with ammonium nitrate to obtain sodium free support, washing, drying, and calcining the support to obtain a calcined chloride free zeolite coated alumina support, immersing the calcined chloride free zeolite coated alumina support in an active metal and a promoter metal solution mixture followed by stirring to obtain a metal coated chloride free zeolite coated alumina support, and drying and calcining the metal coated chloride free zeolite coated alumina support to obtain the catalyst.

Process for preparing a catalyst

The present disclosure relates to a process for catalyst assisted production of crude bio-oil from biomass, which involves heating a mixture of biomass slurry and a catalyst at a temperature ranging from 200 to 350&#xb0; C. and at a pressure ranging from 70 to 250 bars to obtain a mass containing the crude bio-oil. The crude bio-oil is separated from said mass to obtain a separated crude bio-oil. The catalyst being soluble in water is recovered from the aqueous phase and is reused for the preparation of crude bio-oil from biomass.

Catalyst assisted hydrothermal conversion of biomass to crude bio-oil

The present disclosure relates to a process for the conversion of biomass to crude bio-oil. Phycocyanin is extracted from the biomass to form phycocyanin extracted biomass (PEB) and subjecting the PEB to HTL conversion to obtain crude bio-oil. PEB results in improved yield of crude bio-oil as compared to the crude bio-oil yield from biomass without first extracting the phycocyanin from the biomass.

Phycocyanin extraction and production of crude bio-oil from biomass

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Vadodara, India

Raksh Vir Jasra