Internal Combustion Engines : Introduction P M V Subbarao Professor Mechanical Engineering Department In the 21st century, innovations in sustainable.

Slides:



Advertisements
Similar presentations
Aerospace Engineering Laboratory II
Advertisements

Heat Engines A Brief Review of Thermodynamics Thermodynamics  The science of thermodynamics deals with the relationship between heat and work.  It.
Short Version : nd Law of Thermodynamics Reversibility & Irreversibility Block slowed down by friction: irreversible Bouncing ball: reversible.
DISTRICT HEATING: AN OVERVIEW PRESENTED BY: NIELSEN SYSTEMS APRIL 8, 2011.
Lignite Project By Ramic, Haris. GLOBAL OUTLOOK FOR ENERGY World energy consumption is projected to increase at about 1.8%/year between 2000 and 2030(driven.
Combined Cycle Theory Dalton Plant Ouachita Plant.
Creation of Ideal Cycles for Internal Combustion Engines P M V Subbarao Professor Mechanical Engineering Department Basic Thermodynamic Structure of an.
THE CARNOT CYCLE AND ITS VALUE IN ENGINEERING The Carnot cycle is composed of four totally reversible processes: isothermal heat addition, isentropic.
ENERGY CONVERSION ES 832a Eric Savory Lecture 12 – Large-scale plants Department of Mechanical and Material Engineering.
Power Generation OBJECTIVE To examine vapor power plants in which the working fluid is vaporized and condensed.
Department of Mechanical Engineering ME 322 – Mechanical Engineering Thermodynamics Lecture 25 Comparison to Carnot’s Heat Engine Effects of Boiling and.
Reheat cycle.
Physics: Concepts and Connections, 4 th ed., Art Hobson Chapter 17 – Energy Challenge.
The Carnot Cycle Idealized thermodynamic cycle consisting of four reversible processes (any substance):  Reversible isothermal expansion (1-2, T H =constant)
Analysis of Second Law & Reversible Cyclic Machines P M V Subbarao Professor Mechanical Engineering Department Methods to Recognize Practicable Good Innovations…..
Subject: thermal efficiency, mechanical efficiency, volumetric efficiency Student: 1391/12/5.
POWER GENERATION TECHNOLOGIES
GAS POWER PLANT. Producing electrisity using gas Gas mixture ignited in a gas turbine Combined Cycle Gas Turbine Thermal power plant Fuel: coal, oil or.
Power Generation Cycles Vapor Power Generation The Rankine Cycle
Department of Mechanical Engineering ME 322 – Mechanical Engineering Thermodynamics Lecture 27 Gas Power Generation The Brayton Cycle.
 Industrial societies spend huge amounts of energy.  Much of it is supply by electricity which comes from generators in power stations.
Effect of Reheating and Feed Water Heating on Steam Generation P M V Subbarao Professor Mechanical Engineering Department Good to Turbine and Cycle…..
POWER PLANT TECHNOLOGY INTRODUCTION AND OVERVIEW Prof. Anand Bhatt.
Chem. Eng. Thermodynamics (TKK-2137) 14/15 Semester 3 Instructor: Rama Oktavian Office Hr.: M.13-15, Tu , W ,
chapter 9 Steam Power Cycle 9-1 The Rankine Cycle Vapor Carnot cycle T s There are some problems: (1)Compressor (2)turbine.
Gas Turbine Power Plant
Gas Turbine Prof. Somsak Chaiyapinunt. Gas Turbine What is gas turbine? How important is the gas turbine to the engineering applications? How does the.
Steam Engines By: Michael May. Introduction A heat engine that uses steam to perform mechanical work Uses: –Stationary: rotary motion to power machinery.
R. Shanthini 15 Aug 2010 “In the end we will conserve only what we love; we will love only what we understand; and we will understand only what we have.
VII. The second low of Thermodynamics
Plant Utility System (TKK-2210) 14/15 Semester 4 Instructor: Rama Oktavian Office Hr.: M-F
HEAT ENGINE D.A.DEGREE ENGG. & TECHNOLOGY
STIRLING ENGINE.
Heat engines played a key role in the development of the modern industrial world. Steam locomotives were an important early use of the steam engine. Electric.
Study & Analysis of Carnot’s Model for Ideal Machine P M V Subbarao Professor Mechanical Engineering Department IIT Delhi A True Concept of Blue Printing…….
THERMAL POWER PLANT.
SSSF Analysis of Devices Used in Power Generation - 1 P M V Subbarao Professor Mechanical Engineering Department Sources of Work for Manufacturing Industry.
The Rankine Cycle: An Alternate Ideal Thermodynamic Model P M V Subbarao Professor Mechanical Engineering Department IIT Delhi A Feasible Mathematical.
ENGR 2213 Thermodynamics F. C. Lai School of Aerospace and Mechanical Engineering University of Oklahoma.
Second Law of Thermodynamics P M V Subbarao Professor Mechanical Engineering Department In search of Cycles with Better Cost-to-Benefit Ratio…….…
Example Steam enters a turbine at 1200 kPa and 350°C and it exits at 100 kPa, 150°C. The water mass flow rate through the turbine is 2 kg/s. Determine.
Rankine Cycle for Power Generation By P M V Subbarao Mechanical Engineering Department I I T Delhi An appropriate amalgamation of Theory and Practice.
Creation of Ideal Cycles for Internal Combustion Engines P M V Subbarao Professor Mechanical Engineering Department Basic Thermodynamic Structure of an.
Chapter 8. Production of Power from Heat 고려대학교 화공생명 공학과.
EGEE 102 – Energy Conservation And Environmental Protection Energy Efficiency.
Further Analysis of Irreversible Processes P M V Subbarao Professor Mechanical Engineering Department Other Methods to Account the Entropy Generation…..
Dr. Owen Clarkin School of Mechanical & Manufacturing Engineering Summary of Energy Topics Chapter 1: Thermodynamics / Energy Introduction Chapter 2: Systems.
Analysis of A Turboprop Cycle P M V Subbarao Professor Mechanical Engineering Department Enjoy and Experience the flying but pay for road travel ……
Realization of A Cycle P M V Subbarao Professor Mechanical Engineering Department I I T Delhi How to Create Temperature and Pressure…..?
P M V Subbarao Professor Mechanical Engineering Department
Second Low of Thermodynamics
Chapter Seven Section 1 Section 6 Section 2 Section 7 Section 3
P M V Subbarao Professor Mechanical Engineering Department
LAXMI INSTITUTE OF TECHNOLOGY
Gas Power Plant - Layout and Operation
Heat and Heat Technology
Impact of Cycle Design on Steam Generator
Carnotization of Rankine Cycle
Thermo-Economic Analysis of Otto Cycle
Chapter 8 Production of Power from Heat.
St. Augustine Preparatory School
The Second Law of Thermodynamics
Creation of Cycles for Mobile Power Plants
First and Second Law of Thermodynamics
20th Century Thermodynamic Modeling of Automotive Prime Mover Cycles
Scientific Realization of Practicable Power Plant
First Law Analysis of Steam Power Plants
Rankine Cycle for Scientific Design of Power generation System
Carnot Cycle for Scientific Design of Watt Engine
Presentation transcript:

Internal Combustion Engines : Introduction P M V Subbarao Professor Mechanical Engineering Department In the 21st century, innovations in sustainable transportation will gain importance… A new type of mobility must take over the leading role in road transportation this century.

Immediate Needs

Future transportation systems The price of petroleum products  Time. The number of passenger cars  Time. The trends indicate the largest growth rate to be in freight transportation in all industrial sectors. The number of commercial vehicles is expected to increase by about 55 % in the next 20 years. A new type of mobility must take over the leading role in road transportation this century. The time interval of transformation is still unclear and depends on a lot of economically and ecologically influenced factors.

The Concept of Mobile Power Plant Fuel (Resource) Land, Water & Air (Sinks) Power Plant --Cycle -- Basic Hardware -= Auxiliaries & Contorls The Great Need : Mechanical Power

The Family of Steam Engines A Direct Hardware Creations to the Essential Need …..

Boiler Condenser LTR Turbine HTR Compressor Carnot’s Hardware Modeled Hardware for Engine

Carnot’s Theoretical Model for Steam Engine

Higher the temperature of heat addition, higher will be the efficiency. Lower the temperature of heat rejection, higher will be the efficiency. Efficiency of a Reversible Engine is independent of work fluid !!!! Carnot’s Quick Conclusion to Mundane Problem