MIT-World Peace University (MIT-WPU) is a top educational institute located in Pune, India. It is recognized within&nbsp;UGC under Government of Maharashtra Act No. XXXV 2017.&nbsp;

It is part of the MIT group of institutions (established in 1983) which covers 10+ campuses across India and has more than 50,000+ students enrolled across various disciplines at a given point of time. The institute houses 15 schools ranging from Engineering &amp; Technology, Design, Pharmacy, Commerce, Governance among others. It offers undergraduate, postgraduate and PhD programs among different disciplines.&nbsp;

&nbsp;

MIT World Peace University

School of Petroleum Engineering

Engineering and Technology

World University root node

International Journal of Chemical Sciences and Applications

Simulation of Biomass Gasification Reactor

SPG Hyderabad Expanded Abstracts

A framework for risking analysis with EM data

Lab Experiments, (ISSN 0972-6055), LE-44,12(4)(2012) 44 (12(4))

Root-locus Analysis and Design of Feedback Control Systems Using MATLAB”

Scale deposition in producing wellbores is a serious problem in the industry. The problem gets worse, when the scale is caused due to barium and strontium salts. These salts are difficult to clean as they are not easily soluble in any kinds of solution or chelating agents. In case of offshore operation, the scaling phenomenon is inevitable, as sea water injection is done. Formation of scales changes the surface roughness of the production tubing, thereby increasing the frictional pressure drop leading to a decreased production rate. Further deposition clogs the production tubing, creating hindrances for lowering tools into lower sections of the production string. In worst cases tubing replacement needs to be done, which is a capital intensive activity. Creating a super hydrophobic surface with multi-scale nano structures on the inside of the production tubing can greatly reduce the chances of scale deposition. This surface is created on epoxy paint surfaces using a feasible dip coating process. Microstructures are created on this surface using sandblast. Then nano structures are introduced on to the micro surface by anchoring 50-100 micro-meter SiO2 particles and finally completed by dip coating with nano SiO2/epoxy adhesive solution. The hydrophobicity is further enhanced by another dip coating of a low surface energy polymer, aminopropyl. The super hydrophobic surface shows a contact angle of 167.8 degrees (Cui, Yin, Wang et al. 2009) for water, and has high stability in basic and common organic solvents. The ions are carried in the water present in the crude. By increasing the contact angle for water, the chances of deposition of the ions that pose scaling can be reduced. This method may provide a long term solution for scale deposition especially in offshore fields where scaling incurs huge losses. Copyright 2012, Society of Petroleum Engineers.

SPE Middle East Health, Safety, Security, and Environment Conference and Exhibition

Scale inhibition using nano-silica particles

The importance of obtaining a perfect core of a petroleum reservoir is undisputed. Despite tremendous advances in coring techniques, some basic problems remain as challenging as ever. One of these is the coring of unconsolidated formations. Most side-wall cores result in partially damaged cores, totally damaged cores or no core at all, especially in unconsolidated formations. This proposed technique promises to greatly improve the recovery, quality and longevity of the core, thereby resulting in a much better interpretation. Freezing has long been used to preserve cores on the surface, but never before used in-situ. Here in this technique, part of the formation is frozen before being drilled out. Freeze coring promises to be highly beneficial in percussion side-wall coring, as it increases localised formation strength thus increasing impact resistance. Hence, the chances of recovering the core intact increase significantly. This paper discusses the science of the proposed process, explains the mechanism and puts forward a new design for coring, which will help bring back virgin cores to the surface. Changes in the current techniques are proposed which is backed by experimental work. Overall, this work will help determine petrophysical properties of the reservoir to a much higher accuracy while drilling, thus helping in identifying prolific reservoirs. Copyright 2011, International Petroleum Technology Conference.

IPTC 2012: International Petroleum Technology Conference

Side-wall Coring: Advanced In-situ Freeze-Core Technique

One of the challenging problems of gas production is the liquid loading of a gas well. It is the inability of the produced gas to remove the produced liquids from the well bore. This phenomenon has a significantly negative impact on gas well production rate and reservoir pressure due to build up of liquids in the well bore. The accumulated liquid may be in the form of formation water, condensed water or hydrocarbons condensate which acts as a hindrance to the formation gas getting produced. The ultimate recovery of gas is dependent on the economic removal of accumulated liquids, to allow the gas to get produced. This paper discusses a new idea of using dielectric heating using microwaves to heat and vaporize the water and hydrocarbons in the wellbore, if present. As a result of this heating, the fluid density decreases and the gas and vapours flow naturally to the surface. The frequency of microwaves in general is 2450 MHz; depending on the need, the frequency can be varied. Experiments were carried out on the use of this technology and the results are encouraging. This paper discusses this new technique, results obtained from conducted experiments, and provides advantages to the current methods. Copyright 2011, Society of Petroleum Engineers.

SPE Production and Operations Symposium

Gas Well Deliquification Using Microwave Heating

One of the challenging problems of gas production is the liquid loading of a gas well. It is the inability of the produced gas to remove the produced liquids from the well bore. This phenomenon has a significantly negative impact on gas well production rate and reservoir pressure due to build up of liquids in the well bore. The accumulated liquid may be in the form of formation water, condensed water or hydrocarbons condensate which acts as a hindrance to the formation gas getting produced. The ultimate recovery of gas is dependent on the economic removal of accumulated liquids, to allow the gas to get produced. This paper discusses a new idea of using dielectric heating using microwaves to heat and vaporize the water and hydrocarbons in the wellbore, if present. As a result of this heating, the fluid density decreases and the gas and vapours flow naturally to the surface. The frequency of microwaves in general is 2450 MHz; depending on the need, the frequency can be varied. Experiments were carried out on the use of this technology and the results are encouraging. This paper discusses this new technique, results obtained from conducted experiments, and provides advantages to the current methods.

SPE Oklahoma City Oil and Gas Symposium/Production and Operations Symposium

Annual Technical Paper Meet- 2011

Modeling of Reactor \&amp; Simulation of Gas Turbine for Power Generation

Design of High Efficiency Thermal Gasifier for Coal Operations

Lab Experiments, (ISSN 0972-6055) 40 (11(4))

Analyzing Feedback Control Systems Using MATLAB