Design of Road Power Generator (RPG):an Alternate Energy Source for Sustainability

Similar documents
Power Generation From Speed Breaker Department: Mechanical Guided by: Prof. P.M. Patel Prepared by: Ajaysinh( ) Rushabh( )

IJRASET 2015: All Rights are Reserved I. INTRODUCTION

Floating Oscillator based Electric Generator using Mechanical Energy Harvesting

Generation of Electricity from Road Transport Pressure

Electricity Generation Using Speed Breaker

Design and Analysis of Radial Flux Permanent Magnet Brushless DC Motor for Gearless Elevators

ENERGY EXTRACTION FROM ROADWAYS

Optimization Design of the Structure of the Manual Swing-out Luggage Compartment Door of Passenger Cars

GRID CONNECTED SOLAR WIND HYBRID POWER BASED ON IOT

Footstep Power Generation

Innovative Approach To Harvest Kinetic Energy From Roadway Pavement

INTERNATIONAL JOURNAL OF ELECTRICAL ENGINEERING & TECHNOLOGY (IJEET)

Design & Development of Regenerative Braking System at Rear Axle

POWER GENERATION BY MULTIPLE ROAD HUMPS

A Research Oriented Study On Waste Heat Recovery System In An Ic Engine

International Journal of Modern Trends in Engineering and Research e-issn No.: , Date: April, 2016

Design and Development Of Opposite Piston Engine

Design & Modeling of Mobile Chaff Cutter a Review

Comparative Analysis of Integrating WECS with PMSG and DFIG Models connected to Power Grid Pertaining to Different Faults

An Efficient Approach towards Tidal Power Production Using Vertical Planar Motion

Design and Fabrication of Pesticide Series Spraying Machine for Multiple Agricultural Crops

Analysis of Multistage Linkage Based Eclipse Gearbox for Wind Mill Applications

Development of Compact Chassis Dynamometer System for Two Wheeler Vehicle

Fabrication and Study of Vertical Axis Wind Turbine by Maglev Suspension

FABRICATION OF STAIR CLIMBER MATERIAL HANDLING SYSTEM FOR SMALL SCALE INDUSTRY

Abstract. Age Human power by Duration of effort(watt)

ABSTRACT I. INTRODUCTION II. LITERATURE REVIEW III. AIM AND OBJECTIVES. S. Kamble 1, H. Ukande 1, T. Savant 1, A. Haral 1, S.

Performance of Low Power Wind-Driven Wound Rotor Induction Generators using Matlab

AIR COMPRESSED VEHICLE

Design and Stress Analysis of Crankshaft for Single Cylinder 4-Stroke Diesel Engine

Design, Development of Dual Mass Flywheel and Comparative Testing with Conventional Flywheel

A FEASIBILITY STUDY ON WASTE HEAT RECOVERY IN AN IC ENGINE USING ELECTRO TURBO GENERATION

INVESTIGATION ON THREE-WAY DUMPING MECHANISM OF A TWO- WHEEL TRACTOR TROLLEY

Available online at ScienceDirect. Procedia Technology 21 (2015 ) SMART GRID Technologies, August 6-8, 2015

OPTIMUM ALLOCATION OF DISTRIBUTED GENERATION BY LOAD FLOW ANALYSIS METHOD: A CASE STUDY

Fuzzy logic controlled Bi-directional DC-DC Converter for Electric Vehicle Applications

Control Scheme for Grid Connected WECS Using SEIG

American International Journal of Research in Science, Technology, Engineering & Mathematics INDIA

Piezoelectric Wireless Mobile Charger

Maneuvering Experiment of Personal Mobility Vehicle with CVT-Type Steering Mechanism

Semi-Active Suspension for an Automobile

Exhaust Gas Waste Heat Recovery and Utilization System in IC Engine

BIMEE-007 B.Tech. MECHANICAL ENGINEERING (BTMEVI) Term-End Examination December, 2013

International Journal of Advance Engineering and Research Development. Design of Braking System of BAJA Vehicle

MULTIOPERATIONAL ELECTROMAGNETIC FORMING MACHINE

Single-Phase Permanent Magnet Dual Stator Induction Generator

Pedal Power Generation

Conversion of Automotive Turbocharger to Gas Turbine

Numerical Analysis of Speed Optimization of a Hybrid Vehicle (Toyota Prius) By Using an Alternative Low-Torque DC Motor

International Journal of Advance Engineering and Research Development. Design and Development of Pneumatic Stirrup Bending Machine

various energy sources. Auto rickshaws are three-wheeled vehicles which are commonly used as taxis for people and

Performance Testing of Single Plate Automatic Clutch

Energy Generation from Revolving Door

R10 Set No: 1 ''' ' '' '' '' Code No: R31033

Thrust Area 6: Ocean Energy Buoy Array for Ocean Wave Power Generation. Executive Summary

LOAD SHARING WITH PARALLEL INVERTERS FOR INDUCTION MOTOR DRIVE APPLICATION

FLYWHEEL POWER GENERATION AND MULTIPLICATION

Enhance the Performance of Heat Exchanger with Twisted Tape Insert: A Review

Intelligent Control Algorithm for Distributed Battery Energy Storage Systems

Effect of Varying Load on Performance and Emission of C.I. Engine Using WPO Diesel Blend

Simulation of Brake Pressure Multiplier (BPM) through ANSYS 14.0 For Effective Braking in ATV

An Experimental Study of Dual Mass Flywheel on Conventional Flywheel on Two stroke petrol engine.

Energy Production with Multiple Sources and Line Selection with Jumping Priority for Power Distribution Return Feeding Line. I.

Gearless Power Transmission-Offset Parallel Shaft Coupling

INDUCTION motors are widely used in various industries

PERFORMANCE ANALYSIS OF SQUIRREL CAGE INDUCTION GENERATOR USING STATCOM

The Mechanics of Tractor Implement Performance

Small Scale-Wind Power Dispatchable Energy Source Modeling

Steering of an Automobile using Belt Drive

ONLINE NON-CONTACT TORSION SENSING METHOD USING FIBER BRAGG GRATING SENSORS AND OPTICAL COUPLING METHOD. Yoha Hwang and Jong Min Lee

Real And Reactive Power Saving In Three Phase Induction Machine Using Star-Delta Switching Schemes

Fuzzy based Adaptive Control of Antilock Braking System

DESIGN AND FABRICATION OF MULTIROD BENDING MACHINE

Rover - Remote Operated Vehicle for Extraction and Reconnaissance

Effect of Twin Turbocharger on Eicher Dump Truck

STUDY OF ELECTRICITY GENERATED BY CEILING FAN & CAR WHEEL

Design and Force Analysis of Slider Crank Mechanism for Film Transport Used In VFFS Machine

DESIGN AND FABRICATION OF COMBINED FATIGUE TESTING MACHINE

Experimental Investigation of Pedal Driven Hacksaw

KINETIC ENERGY GAIN IN HUMAN POWERED FLYWHEEL MOTOR BY USING QUICK RETURN MECHANISM HAVING RATIO ONE

Analysis of Turn Table Assembly of Semi- Automatic High Pressure Molding Machine

Using energy storage for modeling a stand-alone wind turbine system

NEW CONCEPT OF A ROCKER ENGINE KINEMATIC ANALYSIS

DESIGN AND DEVELOPMENT OF TREADMILL TO GENERATE ELECTRICITY BY USING MECHANICAL ENERGY

Energy Efficient Power Generation Using Speed Breaker With Auto Street Lights. Fayeq Najuib Nikita Gupta Pradyumna Rawat Priyank Agarwal Prashant Mani

Load Analysis and Multi Body Dynamics Analysis of Connecting Rod in Single Cylinder 4 Stroke Engine

Data Mining Approach for Quality Prediction and Improvement of Injection Molding Process

Modelling and Simulation of DFIG based wind energy system

Design and Analysis of Six Speed Gear Box

Power Generation by Using Suspension System

Potential Energy Converter Device Using Automotive Vehicles.

Analysis of Eclipse Drive Train for Wind Turbine Transmission System

ISSN: [Patil et al., 5(10): October, 2016] Impact Factor: 4.116

Recent trends and Importance of Power Electronics: Dr. Siva Kumar K IIT Hyderabad

Design of Automated Outriggers for Self- Propelled Hydraulic Scissor Lift - A Case Study At Air India

Considerations on Flow Regeneration Circuits and Hydraulic Motors Speed Variation at Constant Flow

DESIGN AND IMPLEMENTATION OF HYBRID REGENARATIVE SMART BLDC MOTOR DRIVE ELECTRIC VEHICLE

NOVEL VOLTAGE STABILITY ANALYSIS OF A GRID CONNECTED PHOTOVOLTIC SYSTEM

Positioning of Conveyor and Loadcell Measurement

STUDY ON MAXIMUM POWER EXTRACTION CONTROL FOR PMSG BASED WIND ENERGY CONVERSION SYSTEM

Transcription:

Design of Road Power Generator (RPG):an Alternate Energy Source for Sustainability Ashwin Chandwani 1* Amit N. Patel 1# Abhay Kothari 2 Department of Electrical Engineering Institute of Technology, Nirma University, Ahmedabad. India. 1* 13bee021@nirmauni.ac.in 1# amit.patel@nirmauni.ac.in 2 13bee002@nirmauni.ac.in Abstract -This paper presents the overall concept of Road Power Generator (RPG) that deals with the mechanism to generate electricity from the wasted kinetic energy of vehicles. It contains a flip-plate, gear mechanism, flywheel, and finally a generator is coupled at the end so that the rotational motion of the flywheel is used to rotate the shaft of the generator, thus producing electricity. RPG does not require any piezoelectric material. It is novel concept based on flip-plate mechanism. The project can be installed at highways where a huge number of vehicles pass daily, thus resulting in more amount of electricity generated. This generated electricity can be utilized for different types of applications and mainly for street lighting, on road battery charging units and many domestic applications like air conditioning, lighting, heating, etc. Keywords: Rack and pinion, Flip plate, Wasted energy, Flywheel I. INTRODUCTION Due to the advent and development in the field of renewable energy sources, the dependence on fossil fuels and conventional energy sources has been decreased drastically. This has led to higher penetration and use of Distributed Resources. The rapid increase in the demand for electricity and the recent change in the environmental conditions such as global warming led to a need for a new sources of energy. As we are aware of the factthat the number of vehicles are increasing day by day. Every time a vehicle passes over Speed Breaker, large amount of energy is wasted through friction. There is great possibility of generating power by tapping this energy. By just placing a unit like the Power Generation Unit from Speed Breakers or "Road Power Generator", a significant amount of energy can be tapped [1]. This generated electricity can be used for different purpose such as lighting of streetlights,battery charging and signal lights on road etc. The proposed design offerspollution free power generation, would cause no obstruction in traffic, leading to low budget electricity production. It would occupy less floor area and its maintenance would be easy. The power generated by this technique can be used in street lights, road signals, lighting of the bus stops, lighting of the check post on the highways, etc. II. WORKING PRINCIPLE OF RPG A. Road Power Generator Road Power Generation (RPG) is one of the most recent power generation concepts. By installing a flip plate on the road, this device converts the kinetic energy of the vehicles into electrical energy. Flip plate converts the stroke motion of the vehicles into the rotary motion by rack and pinion concept andthus the generation of electricity takes place. This paper also explains clearly, the working principle of the designed system, its practical implementation, and its advantages. Design of each component has been carried out using standard procedures, and the components have been fabricated and assembled.this mechanism shows the best source of energy that wecan get in day to day life. One might conclude that to be materially rich and prosperous, a human being needs to consume more and more energy.the utilization of wasted energy is an indication of the growth of a nation and environmental friendly approach. B. General Working Road Power Generation (RPG) is a system design to capture wasted kinetic energy from all vehicles. This device converts the kinetic energy of the vehicles into electrical energy [2]. This process is carried out byinstalling moving plate on the road. This plate captures very small movement from the road surface and it transfers this movement to the flywheel system. RPG includes the method of driving one flywheel to another, once it reached predetermining velocity. The RPG flywheel system has been developed to achieve large amount of moment of inertia in relatively small space. DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 494

Fig. 1. Processs of converting energy from the flip-plate mechanism to electricity The captured energy is converted into electricity which is fed into power grid. In this paper the two flip plates are mounted on the road surface and these plates are followed by the rack and pinion arrangement. Pinion is mounted on the shaft which is attached to the frame via bearing. Frame is installed under the road. The flywheel with pulley is mounted on the shaft and second pulley is mounted on the D.C generatorr and these two pulleys are connected with the help of a belt. As wheel of the vehicle reaches upper most position of the plate, plates get slide through the wheel, simultaneously rack moving downward provides torque to pinion [3]. The pinion transmitss this torque to shaft. Shaft is supported by two bearings attached on wall of frame. The shaft having pulley and flywheel arrangement on shaft throughh one-way bearing. Fig. 2. Movement of car over the flip-plate mechanism Fig. 3. Conversion of rotational energy in the flywheel to electrical energy to charge the batteries. This arrangement enhances the rotation of flywheel for small motion of shaft. The bigger pulley has 2 belts coupled with smaller pulley mounted on the D.C. generator shaft. The d. c. Generator converts the rotation of smaller pulley into electricity. DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 495

III. SEQUENTIAL PROCESS IN RPG 1) Block Diagram : - The general block diagram of RPG is as shown in figure 4. The flip plate is coupled to the belt and flywheel system, which in turn provides mechanical input to the DC generator. This energy is stored in batteries and can be used for lighting purposes, etc. 2) Flowchart : - The flowchart for the same is described as follows: - Fig. 4. Block Diagram for the RPG system Fig. 5. Flowchart for working of RPG DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 496

IV. DESIGN OF RPG 1) General Dimmensions Initially, a truck [6 x 4ft.] to be the vehicle passing assumed. Also, considering single reduction drive axle with ratio [SLR] to be 4.5:1. Let, transmission low gear ratio 12:1. So, for a truck, engine rating or capacity 900 lb-ft [Max torque = 1220 Nm] Weight of the truck 44500 lb [20 tonn/4.5] Radius of the wheel(r w ) 11R22.5 = 20 inches = 50.8cm (51cm approx.) Thus, Total torque(τ w ) = Engine rating x Gear Ratio x SLR = 900 x 12 x 4.5 = 48600 lb-ft [Theoretically] or = 1220 x 12 x 4.5 = 65880 Nm But practically it is impossible to get 100% efficiency. So, efficiency considered is 80% - = 0.8 x 48600 = 38880 lb-ft or = 52704 Nm Now, Tractive Force = τ w / R w = 52704/0.51 = 103.341 kn or= 76.235 x 10 3 lb But, tractive force for a single wheel = 103.341/4 = 25.83 kn Fig. 6. Buckling in the member bars Here, we take breadth(d) = 1.25depth(d) Now, Buckling (σ c ) = = Considering, factor of safety (f os ) = 2 (for steel) = ^ = ^. σ c = ^ x 2. = 210 x 10 6 (buckling stress for steel) Thus, we get d = 14 mm As, b = 1.25d = 18mm Also, = ^ Where, Slenderness ratio (SR) = k = radius of gyration n = column effective length factor, whose value depends on the conditions of end support of the column. (n = 1, because the plate is hinged with the rod on both ends.) DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 497

Also, Radius of gyration (k ) = Where, I = Moment of Inertia k = / k = k = 4.04 mm So, effective k = 2xk = 8.08mm Now, accordingly, = ^ So, = 133.638 And so, l = 1079.79 mm = 107.97 cm (±5%) B. Power and Torque: - T P = F T x r Where, T p = Torque exerted on pulley mechanism (12 knm assumed) F T = Tractive Force on the pulley. r = radius of the pulley. 12 x 10 3 = 103 x 10 3 * (r) r = 0.1165m = 12cm We require final pulley having 12 cm radius and so according to the turns ratio of the second pulley = 2:1. Thus, the radius of the second pulley = 24 cm. Fig. 7. Pulley Mechanism A. Male part of the flip-plate V. CONCEPTUAL DESIGN AND PARTS OF RPG Fig. 8. Male part of the flip-plate DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 498

B. Female part of the flip-plate C. Pinion Fig. 9. Female part of the flip-plate D. Shaft Fig. 10. Pinion used for the motion of the flywheel E. Mini gear Fig. 11. Shaft used to transfer the energy to the flywheel F. Sprocket Fig. 12. Mini gear structure Fig. 13.Sprocket Structure DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 499

G. Flywheel Fig. 14. Flywheel structure H. Dynamometer Fig. 15. Dynamometer for converting mechanical energy to electricity I. Conceptual Layout Fig. 16. Whole mechanism for RPG VI. CONCLUSION The demand for sustainable energy is increasing day by day. So, RPG proves to be a viable mechanism that can tap the wasted kinetic energy of the vehicle and in turn it can produce electrical energy. This generated energy can be used to light the street lights and also can be used to charge batteries for cars. The design of the same was carried out and the results proved that a compact RPG system can be used so as to get reasonably good amount of energy. Similarly, different constituent parts were designed and different results on the basis of design were obtained. VII. REFERENCES [1] C. K. Das, S. M. Hossain, M. S. Hossan, Introducing Speed Breaker as a Power Generation Unit for Minor Needs, IEEE International Conference oninformatics, Electronics & Vision (ICIEV),17-18 May 2013. [2] Noor Fatima, Jiyaul Mustafa, Production of electricity by the method of road power generation International Journal of Advances in Electrical and Electronics Engineering - ISSN: 2319-1112. Vol-1 [3] Wail Adaileh, Khaled Al-Qdah, Mayyas Mahasneh, Potential of Power Generation Utilizing Waste Kinetic Energy from Vehicles, Journal on Smart Grid and Renewable Energy, Vol-3, May 2012. DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 500

AUTHOR PROFILE Ashwin Chandwani was born in Vadodara, Gujarat, India on 11 th March 1996. He is currently pursuing B.Tech in Electrical Engineering from Nirma University, Gujarat, India. His major fields of interest are renewable energy studies and power system compensation (active and passive). His current research focusses on application of Artificial Neural Network for efficient power quality conditioning system and Renewable Energy Extraction. Amit N Patel received his B.E. degree and M.E. degree in Electrical Engineering from Gujarat University, India in 1999 and 2004 respectively. Currently he is working as Assistant Professor at Nirma University, Gujarat, India. His research interest include both conventional and advanced electrical machines. He has published papers in international journals and conferences. Abhay Kothari, born on November 13, 1995 at Udaipur, Rajasthan, India. He is currently pursuing B.Tech in Electrical Engineering from Nirma University, Gujarat, India. His current research focusses on the designing of smart metering systems using advanced controllers. DOI: 10.21817/ijet/2017/v9i2/170902010 Vol 9 No 2 Apr-May 2017 501