Hydraulic Ram for Fuel-free Water Lifting

Slides:



Advertisements
Similar presentations
MBTA Groundwater Action Plan Dr. Steve J. Poulos, P.E.
Advertisements

High performance; from 1 metric ton to 100 metric tons instant purification facility per hour, 2400tons per day Low energy consumption (25 kw/h – 38 kw/h)
A force applied over a surface is pressure.
HVAC523 Heat Sources.
1 | Program Name or Ancillary Texteere.energy.gov Water Power Peer Review Validation of W4e Hydropower Turbine Generator PI Henry W Russell Walker Wellington,
Wangana Piped Irrigation Network Project Dr. Srinivasa Lingireddy Dipl.-Eng Alexander Allik Mr. Milind Murudkar.
Facilities Management Utilities & Engineering Services Duke CHWP-2 RECLAIM WATER DU-107-PP.
Energy & Its Impact on Global Society Jerome K. Williams, Ph.D. Saint Leo University Dept. Mathematics & Sciences.
Pathleen Titus CARDI Representative , St Kitts and Nevis
October Storm Flows City of Worcester DPW & Parks Department, Sewer Operations Division January 26,2006.
Until recent years, you probably didn’t think much about water. It was always there when you wanted it: for drinking, washing your clothes, or taking.
Tidal Power (Ch 5.4, ) Phys 105 Dr. Harris 4/1/13.
BOB BROZ UNIVERSITY OF MISSOURI EXTENSION (573) ISE #78 WATER MANAGEMENT STRATEGIES FOR DROUGHT MITIGATION AND SUSTAINABLE AGRICULTURAL PRODUCTION.
Pipeline Hydraulics.
Today’s Presentation Piping Storage, Treatment, and Distribution Source.
Definition and choice system for maintenance with water the population of small village Submitted by: Pavel Kostyuk Student, WR227 December 6, 2004 (
Wind Turbines Wind Turbines are becoming more and more popular as the idea of “green energy” expands Matt McCombs.
EE535: Renewable Energy: Systems, Technology & Economics
Basic Hydraulics Irrigation.
Peak Inspiratory and Expiratory Flow Meter Team: Andrew Eley, Sarah Offutt, Darshan Patel, Eric Bader BME 200/300 December 2, 2005.
 UAB Vilniaus waters - the largest water company in Lithuania, which operates not only in the city of Vilnius, but also the district, Svencionys and.
Mechanical for Oil Heat
Reciprocating pump Pumps are used to increase the energy level of water by virtue of which it can be raised to a higher level. Reciprocating pumps are.
Hydro Power Plant Prepared by: Nimesh Gajjar
Dan Lapid Center for Advanced Philippine Studies “Pursuing Innovations in Development and Environment” Ecological Sanitation in the Philippines (ISSUE.
Submitted by Waris jamal Praveen kumar gautam Shiv pratap singh Ramashwar kumar singh Under the guidence of Prof.safiulla khan.
MER Design of Thermal Fluid Systems Pumps and Fans Professor Anderson Spring Term
Components of Centrifugal pumps
Lecture 1 Water Distribution Systems
Plans to bring Out-of-Compliance UES Measures back into Compliance: 1. Agricultural Irrigation Hardware UES 2. Agricultural Motors UES Regional Technical.
Pumps and Lift Stations. Background Fluid Moving Equipment Fluids are moved through flow systems using pumps, fans, blowers, and compressors. Such devices.
Pre-Rinse Spray Valve Small Saver UES Measures Regional Technical Forum September 17, 2013.
Hydroelectricty By Colwynn Parris. What is Hydroelectricity?  Hydroelectricity is the term referring to electricity generated by hydropower; the production.
10 Frequently Asked Questions about Center Pivots Gulf Coast Irrigation Conference Sinton, November 18, 2008 Guy Fipps Professor and Extension Agricultural.
The future of energy; Blowing in the wind By James Claps and Max Joubert.
Techno-economic Analysis of an Off-grid Micro- Hydrokinetic River System for Remote Rural Electrification Central University of Technology Energy Postgraduate.
HYDRO POWER PLANT
Water power Tomas Leiva Mathieu Maldemay Marc-Olivier Choquette.
HVACR116 – Trade Skills Longest length method.
Washington’s Water Use Efficiency Rule May Require Increased Coordination for Many Utilities Dan Sander, P.E. Senior Engineer.
Development of a Procedure for Estimating Crop Evapotranspiration over Short Periods Dr. Jorge Gonzalez, Professor Dept. of Mechanical Engineering Santa.
SUBJECT CODE NAME OF SUBJECT TOPIC :::::: FLUID POWER ENGINEERING CENTRIFUGAL PUMP Parul Institute of Engineering & Technology.
Parul Institute of Engineering & Technology Subject Code : Name Of Subject : Fluid Power Engineering Name of Unit : Pumps Topic : Reciprocating.
Hot Air Balloons.
2011 Calendar Important Dates/Events/Homework. SunSatFriThursWedTuesMon January
FLUID POWER CONTROL ME604C. Extent of the Subject: FLUID POWER & CONTROL Some beautiful examples: 1...\video\Edited\Excavetor working.mp4..\video\Edited\Excavetor.
Pressure and Flow Analysis Through EPANET Open source software package for hydraulic simulation of water distribution networks Used to determine impact.
Disasters change things. Things that we take for granted every day may be hard to find.
Biological Sources of Energy LLC (BioIstEn LLC) Total Recycling of Carbon Containing Wastes including Biomass Sergey Vilchek, PhD Director, BioIstEn LLC.
GUJARAT TECHNOLOGICAL UNIVERSITY (GTU) Mahatma Gandhi Institute Of Technical Education and Research Center, Navsari Affiliated with GTU Presentation on.
FLUID FLOW FOR CHEMICAL ENGINEERING Dr Mohd Azmier Ahmad Tel: +60 (4) EKC 212 CHAPTER 8 (PART 2) TRANSPORTATION SYSTEM.
Central Level Experience Sharing Workshop Niraj Shrestha December 9, 2014 Livelihood Enhancement through Hydraulic Ram Pump in Kavrepalanchowk District,
National Diploma Mechanical and Electrical Services Construction Cold Water Supplies.
Prepared By:- Divyesh Shingala ( )
Miscellaneous Hydraulic Machine
Irrigation Systems and Components. Overview Types Layout Components Hydraulics Design Considerations.
Assoc. Prof. Dr. Tarkan Erdik
Dr. S. & S.S.Ghandhy Government Engineering College, Surat
By: Nawaz Haider Bashir SESE_Science GHS Patti Bulanda
OMID’S MISSION The acronym "OMID" is taken from the Farsi words that translate to "satisfying day-to-day needs of the farmers." The word OMID means "hope"
Year 2 Autumn Term Week 12 Lesson 1
10.1 The Status of Renewable Energy
Water-saving Shower Faucet
Year 2 Autumn Term Week 12 Lesson 1
Estler Lake Dam Rehabilitation
Endless Power.
Hydraulic Ram for Fuel-free Water Lifting
2015 January February March April May June July August September
Presentation transcript:

Hydraulic Ram for Fuel-free Water Lifting By Roberto A. Alaban, Jr. Design|Fabrication|Installation Technology transfer|Consultancy Mobile: 0928 763 2788 E-mail: redrichfrost@yahoo.com Website: http://ra-initiatives.tripod.com

What is a Hydraulic Ram? The hydraulic ram pump may be defined as a self-acting device that uses the energy of a large volume of water falling from a higher location (relative to the ram) and passing through it, to lift a small volume to a location significantly higher than the ram and the source of water. It has only 2 moving parts.

Characteristics of a Hydraulic Ram Water-Lifting System (1) there is no other external energy input (e.g. human, animal, fossil fuel, etc.) that makes the ram work other than the energy of water passing through the pump; (2) its operation will continue 24 hours a day, seven days a week so long as the required volume of water continues to flow through it, (3) water has to come from a location higher than the ram;

Characteristics of a Hydraulic Ram Water-Lifting System (4) only a small portion of this water (around 25 % or less) is pumped up, the remainder passing out of the ram and must be drained to a lower location; (5) the vertical distance to which water can be pumped up from the ram is significantly higher than the vertical distance from its source to the ram – up to 30 meters delivery height per 1 meter of supply fall, although typically the most efficient is within a ratio of 10:1 or less, and;

Characteristics of a Hydraulic Ram Water-Lifting System (6) due to the ram’s small output per minute, there is a need for a storage device at the point of delivery to accumulate this output on a 24-hour basis, e.g. an earthen pond for irrigation or ferrocement, metal, or plastic tank for drinking water.

History proven, technology for lifting water. The hydraulic ram is a very old, and well- proven, technology for lifting water. In 1772, Englishman John Whitehurst invented a manually-operated precursor of the hydraulic ram called the "pulsation engine." The first one he installed in 1775 raised water to a height of 16 ft. (4.9 m).

History The first self-acting ram pump was invented by the Frenchman Joseph Michel Montgolfier in 1796 for raising water in his paper mill (Montgolfier is more popularly known for his work in hot-air balloons). The sons of Montgolfier obtained an English patent for an improved version in 1816 but this was acquired, together with Whitehurst's design, in 1820 by Josiah Easton, a Somerset-born engineer who had just moved to London.

History Easton's firm, inherited by his son James grew during the nineteenth century to become one of the more important engineering manufacturers in the United Kingdom, with a large works at Erith, Kent. They specialised in water supply and sewerage systems world-wide, as well as land drainage projects. The Eastons had a good business supplying rams for water supply purposes to large country houses, and also to farms and village communities, and a number of their installations still survive up to this day.

History In 1929 the company was acquired by Green & Carter, of Winchester, Hampshire, who were engaged in the manufacturing and installation of the well-known Vulcan and Vacher rams. Green & Carter now function from Ashbrittle, near Wellington, Somerset, U.K.

Ram Pumps in the 21st century In recent years there has been a resurgence of interest in hydraulic rams, particularly in developing countries, due to the continuing rise in fossil-fuel prices. In India, Vietnam, and China their governments are very active in constructing hydraulic ram systems and in disseminating the technology to the countryside for irrigation and drinking water (a German group is leading the effort in Vietnam and China). In Africa (Zimbabwe), a British group has been active in this field since 1994.

Ram Pumps in the 21st century Surprisingly, in the Philippines the ram pump is still a relatively unknown technology and has not been part of the government’s program for irrigation or potable water delivery. Even more surprising, many technically-trained individuals (engineers) have not heard about a ram pump and could not believe that water can be continuously pumped to a location much higher than its source by water inertia alone, by a pump that has only two moving parts!

Ram Pumps in the 21st century Even in the country’s premier agricultural engineering school the hydraulic ram is taught mainly in theory and in passing, and one agricultural engineering professor has dismissed it for water-lifting work as inefficient because it can pump only a small portion of the total volume of water that passes through it (even though the fuel expense is totally zero).

Parts of a Hydraulic Ram The ram pump is a very old technology, and for over two centuries many designs have been tried. Today, rams come in a variety of shapes and sizes, yet many of the incorporated modifications are mere variations of the same theme, and the basic design consist almost always of the following: ram body, impulse valve, delivery valve, air snifter, and air chamber.

Parts of a Hydraulic Ram Shown is Chinook MP-2 2-inch ram designed by the author Air chamber Delivery pipe stub Impulse valve Delivery valve Air snifter Body Drive pipe stub Feet

Parts of a Hydraulic Ram Shown is a large-bore Chinese-made hydraulic ram pump Air chamber Delivery pipe stub Impulse valve Delivery valve Air snifter Body Drive pipe stub Feet

Parts of a Hydraulic Ram Different forms, same substance Delivery pipe stub Drive pipe stub Air chamber Delivery valve Impulse valve Air snifter Body Feet

TYPICAL COMPONENTS OF A HYDRAULIC RAM WATER-LIFTING SYSTEM Service area/Storage facility (not shown) Source (river, stream, spring) Supply pipe Delivery pipe Drive tank Lift (Delivery head) Drive pipe Hydraulic Ram pump Fall (Drive head)

COST OF A HYPOTHETICAL HYDRAULIC RAM SET UP with 2-INCH RAM Assuming data as shown Estimated output: = (Fall * Volume * 0.60)/Lift = (3 * 120 * 0.60)/20 = 10.8 liters/minute = 15,552 liters/day Delivery pipe 60 m Supply pipe 30 m Lift, 20 m Drive pipe 12 m Hydraulic Ram pump, 2 inches Fall, 3 m Source flow rate 120 liters/minute

COST OF A HYPOTHETICAL HYDRAULIC RAM SET UP with 2-INCH RAM (Direct material costs, excluding labor and optional dam) (Off-the-shelf) Supply pipe: 2-inch commercial grade HDPE pipe, 60 meters – P 1,500.00 Drive tank: 220-liter PVC drum – 900.00 Drain pipe: g.i. nipple 1” x 6” , sched. 40, 1 pc. -- 45.00 Gate valve 1” , 1 pc. – 125.00 Drive pipe: 2-inch g.i. pipe, schedule 40 , 2 lengths – 2,600.00 G.i. coupling, 2 inches, 1 pc. – 85.00 G.i. union, 2 inches, 1 pc. – 105.00 G.i. nipple, 2” x 6”, sched. 40, 2 pcs. – 140.00 PVC ball valve, 2 inches, with threaded ends – 280.00 G.i. union, 1 ¼”, 1 pc. -- 65.00 G.i. nipple, 1 ¼” x 4”, sched. 40, 1 pc. -- 55.00 Swing check valve, 1 ¼ ”, 1 pc. -- 215.00 Delivery pipe: 1 ¼” commercial grade HDPE pipe, 60 meters -- 750.00 Cement for drive tank and hydraulic ram base, 3 bags -- 600.00 Mixing sand -- 200.00 Miscellaneous -- 500.00 (Fabricated) 2-inch hydraulic ram pump – 12,000.00 Ram cradle – 800.00 ----------------------- Total P 20,965.00

LIST OF CLIENTS El Nido Foundation, Palawan – May 2006   El Nido Foundation, Palawan – May 2006 Nono Cabatac, El Nido, Palawan -- May 2006 Victorias City Eco-park -- July 2006 Felino Javier, Rosario, Batangas -- September 2006 Dr. Nolasco, Roxas City -- October 2006 Antonio Villanueva, South Cotabato -- October 2006 Rod Plopiño, Occ. Mindoro -- November 2006 Eric Payucong, La Union – November 2006 Dan Cabitac, Batanes -- November 2006 10. Gil Montilla, Ubay, Bohol -- December 2006 Christopher Agbayani, Puerto Princesa – December 2006 Reynaldo Rosales, Lipa, Batangas -- December 2006 Mike Yukor, Dumaguete -- January 2006 Betty Yap, Cebu City -- January 2007 Leyte Prov. Gov’t -- January 2007 Vince Emnas, Baybay, Leyte -- January 2007 Frank Colloquio, Guimaras -- February 2007 Bernardino Verano, Brooke’s Point, Palawan – February 2007 Jun Padilla, Manila – February 2007 Ramon Ko, Bacolod City – March 2007 Virgie Neo, Tanay, Rizal -- March 2007 Manolo Chua, Zambales – March 2007 Abelardo Dapat, Limay, Bataan -- March 2007 Juan Ochoa, Pasuquin, Ilocos Norte – March 2007 Roy Castañeda, Camotes Island – March 2007 Leopoldo Avecilla, Alaminos, Laguna – March 2007 Atty. Jose Gangan, Ilagan, Isabela – March 2007 Ruby Ann Baetiong, Manila -- March 2007 Dr. Aristeo Tantoco, Rio Tuba, Palawan -- March 2007 Metro Clark Waste Management Corp. -- April 2007 George Bautista, Bamban, Tarlac -- April 2007 32 . Aurelia Rarang, Baguio City -- May 2007

Multiple-ram set up Six 4-inch hydraulic rams with a combined output of more than 300,000 liters per day irrigate around 35 hectares of farmland in central Negros Occidental.