Forging new generations of engineers

Slides:



Advertisements
Similar presentations
Landstown High School Governors STEM & Technology Academy
Advertisements

Inline & 90° Heavy Duty Ball Bearing, Rebuildable Design Switch Your Swivel! Switch Your Swivel! ®
Chapter 6: Hydraulics & Pneumatics
Unit 3 Review.
principle.components.structure.application.circuit.h118/1d
Hydraulic Power basics.
Fluid Power Introduction
Forging new generations of engineers. Fluid Power.
Fluid Power Introduction
Basic Hydraulics and Pneumatics
Introduction to Basic Hydraulics
ME8843 The George W. Woodruff School of Mechanical Engineering ME 8843 Advanced Mechatronics Instructor: Professor Charles Ume Introduction to Hydraulic.
AIRCRAFTS HYDRAULIC SYSTEM
Fluid Power Introduction
Intro to Fluid Power Topics What is fluid power? Where is it used?
Sensors and Actuators John Errington MSc. Sensors and Actuators Sensors produce a signal in response to a change in their surroundings e.g. Thermostat.
Actuators Fluid Mechanics Aerospace, Security, and Automation.
ENGR 8-4, Lesson 2 Hydraulic and Pneumatic Systems
Introduction Muhajir Ab. Rahim School of Mechatronic Engineering.
Chapter 12 Fluid Power. Objectives Upon completing this chapter, you should be able to: –Discuss some fluid power fundamentals –Explain psi, psig, psia,
Chapter 10 Fluid Power Systems.
Understanding Principles of Fluid Power Transmission
Fluids. Flow Take shape of container Liquids or gases Exert pressure Pressure = force / area Fluids
Chapter 7 An Introduction to Power. Objectives Identify the difference between work and power. Define horse power (hp). Recognize various power components.
Hydraulic and Pneumatic Transmission
What is Fluid Power? Fluid power is energy transmitted and controlled by means of a pressurized fluid, either liquid or gas. The term fluid power applies.
IT 264 Industrial Fluid Power
Manufacturing Engineering Hydraulic and Pneumatic Systems
Pneumatic and hydraulic actuation systems
PSAA Curriculum Unit Physical Science Systems. Problem Area Energy and Power Systems.
Hydraulics. An area of engineering science that deals with liquid flow and pressure.
Chapter One Introduction to Fluid Power. What is fluid power? Technology, which deals with the generation, transmission, and control of power using, pressurized.
HYDRAULIC MOTORS.
Using Hydraulic Systems
Fluid Power. What is Fluid Power? Fluid power is energy transmitted and controlled by means of a pressurized fluid, either liquid or gas. Hydraulics uses.
FLUID POWER CONTROL ME604C. Extent of the Subject: FLUID POWER & CONTROL Some beautiful examples: 1...\video\Edited\Excavetor working.mp4..\video\Edited\Excavetor.
Introduction to Pressure, Pneumatics, and Hydraulics.
Fluid Power Introduction All Images reprinted with permission of National Fluid Power Association.
Fluid Power Introduction © 2012 Project Lead The Way, Inc.Principles of Engineering All images reprinted with permission of National Fluid Power Association.
Manufacturing Engineering Hydraulic and Pneumatic Systems
Mr. Brooks Foundations of Technology.  Examine and analyze open and closed fluid systems in terms of common components and basic design.
Click to edit Master subtitle style Fluid Power Introduction All Images reprinted with permission of National Fluid Power Association.
Engineering II – August 2016
HYDRAULIC AND PNUEMATIC ACTUATION SYSTEMS
Lesson Describing Basic Physical Science Laws Applied in Agricultural Mechanics.
GOVERNMENT ENGINEERING COLLEGE DAHOD
Fluid Power Systems And Fundamentals
Fluid Power Introduction
Introduction to hydraulics
Fluid Power Introduction
Fluid Power Introduction
Fluid Power Introduction
Fluid Power Introduction
Forging new generations of engineers
Fluid Power Introduction
Forging new generations of engineers
Fluid Power Introduction
Fluid Power Introduction
Hydraulics Used in many applications in industry!.
Hydraulic Live Swivels
Unit Physical Science Systems
ME6021 – Hydraulics & Pneumatics
Hydraulic Power basics.
Fluid Power Introduction
Fluid Power Introduction
Hydraulic Live Swivels
Fluid Power Introduction
Fluid Power System Principles
Presentation transcript:

Forging new generations of engineers

Fluid Power Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design What is Fluid Power? Fluid power is energy transmitted and controlled by means of a pressurized fluid, either liquid or gas. The term fluid power applies to both hydraulics and pneumatics. Hydraulics uses pressurized liquid, for example, oil or water; Pneumatics uses compressed air or other neutral gases. Fluid power can be effectively combined with other technologies through the use of sensors, transducers and microprocessors. This presentation is taken from the National Fluid Power Association website on What is Fluid Power. http//www.nfpa.com From: http://www.nfpa.com/OurIndustry/OurInd_AboutFP_WhatIsFluidPower.asp Project Lead The Way, Inc. Copyright 2007

How does Fluid Power Work? Pascal's Law expresses the central concept of fluid power: "Pressure exerted by a confined fluid acts undiminished equally in all directions."

An Example An input force of 10 pounds (44.8 Nm) on a 1-square-inch (6.45 cm2) piston develops a pressure of 10 pounds per square inch (psi) (68.95 kN/m2 or 68.95 KPa) throughout the container. This pressure will allow a 10-square-inch piston to support a 100-pound (444.8 Nm) weight. The forces are proportional to the piston areas.

The Advantages Multiplication and variation of force Fluid Power Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design The Advantages Multiplication and variation of force Easy, accurate control Multi-function control High horsepower, low weight Low speed torque Constant force or torque Safety in hazardous environments Established standards and engineering Fluid power systems provide many benefits to users including: Multiplication and variation of force - Linear or rotary force can be multiplied from a fraction of an ounce to several hundred tons of output. Easy, accurate control - You can start, stop, accelerate, decelerate, reverse or position large forces with great accuracy. Analog (infinitely variable) and digital (on/off) control are possible. Instantly reversible motion-within less than half a revolution-can be achieved. Multi-function control - A single hydraulic pump or air compressor can provide power and control for numerous machines or machine functions when combined with fluid power manifolds and valves. High horsepower, low weight ratio-Pneumatic components are compact and lightweight. You can hold a five horsepower hydraulic motor in the palm of your hand. Low speed torque-Unlike electric motors, air or hydraulic motors can produce large amounts of torque (twisting force) while operating at low speeds. Some hydraulic and air motors can even maintain torque at zero speed without overheating. Constant force or torque-This is a unique fluid power attribute. Safety in hazardous environments-Fluid power can be used in mines, chemical plants, near explosives and in paint applications because it is inherently spark-free and can tolerate high temperatures. Established standards and engineering-The fluid power industry has established design and performance standards for hydraulic and pneumatic products through NFPA, the National Fluid Power Association; ANSI, the American National Standards Institute; and ISO, the International Organization for Standardization. Project Lead The Way, Inc. Copyright 2007

Fluid Power Applications Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design Fluid Power Applications Mobile Backhoes Graders Tractors Truck brakes Suspensions Spreaders Highway maintenance vehicles Mobile: Here fluid power is used to transport, excavate and lift materials as well as control or power mobile equipment. End use industries include construction, agriculture, marine and the military. Applications include backhoes, graders, tractors, truck brakes and suspensions, spreaders and highway maintenance vehicles. Project Lead The Way, Inc. Copyright 2007

Fluid Power Applications Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design Fluid Power Applications Industrial Metalworking equipment Controllers Automated manipulators Material handling Assembly equipment Industrial: Here fluid power is used to provide power transmission and motion control for the machines of industry. End use industries range from plastics working to paper production. Applications include metalworking equipment, controllers, automated manipulators, material handling and assembly equipment. Project Lead The Way, Inc. Copyright 2007

Fluid Power Applications Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design Fluid Power Applications Aerospace Landing gear Brakes Flight controls Motor controls Cargo loading equipment Aerospace: Fluid power is used for both commercial and military aircraft, spacecraft and related support equipment. Applications include landing gear, brakes, flight controls, motor controls and cargo loading equipment. Project Lead The Way, Inc. Copyright 2007

Fluid Power Components Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design Fluid Power Components Fluid power products are sold as individual components or as systems for the original equipment manufacturing, maintenance, repair and replacement markets. Project Lead The Way, Inc. Copyright 2007

Fluid Power Fluid Power System Introduction to Engineering Design TM Unit 2 – Lesson 2.4 – Advanced Design A typical fluid power system includes the following components: Manifolds, hose, tube, fittings, couplings, etc., Sealing devices Accumulators and reservoirs Instruments, such as pressure switches, gauges, flow meters, sensors and transducers Hydraulic pump or air compressor Cylinder or motor Valves Filters, regulators and lubricators Hydraulic pump or air compressor, which converts mechanical power to fluid power. Cylinder or motor, which converts fluid power to linear or rotary mechanical power. Valves, which control the direction, pressure and rate of flow. Filters, regulators and lubricators, which condition the fluid. Manifolds, hose, tube, fittings, couplings, etc., which conduct the fluid between components. Sealing devices, which help contain the fluid. Accumulators and reservoirs, which store the fluid. Instruments such as pressure switches, gauges, flow meters, sensors and transducers, which are used to help monitor the performance of a fluid power system. Project Lead The Way, Inc. Copyright 2007