MICE Installation and Commissioning meeting RAL, 13 June 2007 Diffuser - Gear design. Joe Tacon - Oxford University.

Slides:



Advertisements
Similar presentations
Solve this equation to find x
Advertisements

Gears ‘n stuff: Angular Velocity
Peter Watterson CSIRO Materials Science and Engineering, Australia
G E A R S What is a gear? What do they do? Most common gear?
25m 17 m 15 m 13 m P=(25 +17)*15+17*13= 42*15+221= = 851m 2 =8,51 a.
Advanced Gear Analysis
Structures and Mechanisms.
Gear Drives Gear Drives
Standard Transmissions
Engineering II Gears Getting Geared Up.
Gears and Transmissions
Mechanisms Mechanisms Gateway To Technology®
Introduction to Robotics
Power Transmission & Drivetrain. Creating Effective Robot Mechanisms Drivetrain: Moves Quickly Has Good Pushing Power (Power & Traction) Turns Easily.
Gears.
Engineering Sciences and Technology
Mechanical Design II Spring 2013.
Created by Susan Neal $100 Fractions Addition Fractions Subtraction Fractions Multiplication Fractions Division General $200 $300 $400 $500 $100 $200.
Video 1 Solve 4(m + 12) = –36 3(2 –3p) = 42.. Your turn Solve –3(5 – 4r) = –9.
Equal or Not. Equal or Not
Worm and Wheel Gear Crank Wheel Gear (Driven) Worm Gear(Drive)
Fractions Simplify: 36/48 = 36/48 = ¾ 125/225 = 125/225 = 25/45 = 5/9
Group Members 2008-EP EP EP EP-49.
Brought to you by: Demetri Preonas Greg Unverferth
All figures taken from Design of Machinery, 3rd ed. Robert Norton 2003
1 Gear trains (Chapter 6) Change torque, speed Why we need gears Example: engine of a containership –Optimum operating speed of the engine about 400 RPM.
MECH1200 Multiple gears The Speed of any driven gear is determined by calculating the gear ratio using the driven gear as the output gear along with the.
Simple Gear with Idler Idler Drive Driven.
Chain Drive Drive Driven Crank Chain.
Bevel Gear. 1. What is the position of the input shaft compared to the output shaft? Bevel Gear Perpendicular.
 To understand and calculate gear ratios  To understand and demonstrate the relationship of torque and rotational speed  To understand and properly.
Mechanisms Get your notebook please- we are taking a few notes first
EML 2023 – Motor Control Lecture 2 – Motor. EML 2023 Department of Mechanical and Aerospace Engineering Let’s answer 3 questions. 1.How is the motor held.
Gears and Gear Trains: Student Learning Goal
Gears, Pulley Drives, and Sprockets. Gears, Pulleys, & Sprockets Mechanisms used to transfer energy through rotary motion. Change the speed of rotation.
Compound Gears Unit 6.
Forging new generations of engineers. GEARS Presentation Objectives Identify parts of the gear trainer Identify gears Identify gear terminology Identify.
Counting Servo Gear Teeth living with the lab Take apart one of your servos to see what it’s like on the inside. Count the number of teeth on each gear,
Gear Train.
Chapter 29 – Black Book Chapter 2 – Chek Chart
Driven Drive Simple Gear B. 2. What is the position of the input shaft compared to the output shaft? Simple Gear B Parallel.
Mechanisms Jeopardy Q $100 Q $200 Q $300 Q $400 Q $500 Q $100 Q $200 Q $300 Q $400 Q $500 Final Jeopardy.
M.apollonioCM18, RAL, 14/6/20071 MICE beam diffuser M. Apollonio, J. Cobb, P. Lau, W. Lau, J. Tacon, H. Witte, S. Yang - Univ. Oxford circa 87 BC.
Defining Gear.
Gears. Introduction A gear is a wheel with teeth on its outer edge. Gears rotate on a central axis. The teeth of one gear mesh with or engage the teeth.
Gear ratio and machine Secondary two Design & Technology.
Power Transfer using GEARS Dean Celini Mentor FRC Team /10/2016.
Automatic Transmissions and Transaxles
Gears and Transmissions
UNIT III GEARS AND GEAR TRAINS
GEARS.
Basic Practical Mechanics
גלגלי מניע גדול, מסובב גלגל מונע קטן, והתוצאה היא הגברה של מהירות
Two-Gear Gear Trains Using different size gear allows change in speed
Mechanisms PLTW Gateway Unit 2 – Lesson 2.2 – Mechanical Systems
Gearing Fundamentals.
Gears and Transmissions
Pulleys, Sprockets, and Gears
Workings of the Reciprocating Saw
Mechanical Engineering: Gears
Observing Mechanisms.
Structures and Mechanisms.
Pulleys, Sprockets & Gears
GEARS.
Structures and Mechanisms.
What is a Simple Machine?
Forging new generations of engineers
Gear trains (Chapter 6) Change torque, speed Why we need gears
Warm Up: Name the parts of a wind turbine
Presentation transcript:

MICE Installation and Commissioning meeting RAL, 13 June 2007 Diffuser - Gear design. Joe Tacon - Oxford University

Gear Box Speeds and ratios: Gear Box 1: Gear Box 1: Finger Main Rotation: Input Speed: 200 RPM Input Torque: 3 Nm Output Speed: 0.33 RPM (1 turn every 3 minutes) Total gear ratio: 200 / 0.33 = 600:1 Output torque: 600 x 3 = 1800Nm Gear ratio of the drive gears: Gear A (Central Gear Drive) = 17 teeth. Gear B (Central Gear Rotation) = 51 teeth. Gear ratio: 51 / 17 = 3:1 Gear box ratio needed: 600 / 3 = 200:1 A B

Gear Box Speeds and ratios: Gear Box 2: Gear Box 2: Bayonet Gear Drive: Input Speed: 200 RPM Input Torque: 3 Nm Output Speed: 0.5 RPM (10 seconds to rotate 30 degrease) Total gear ratio: 200 / 0.5 = 400:1 Output torque: 400 x 3 = 1200Nm Gear ratio of the drive gears: Gear A (Central Gear Bayonet Drive) = 10 teeth. Gear B (Central Gear Ring Internal) = 95 teeth. Gear C (Central Gear Ring External) = 110 teeth. Gear D (Bayonet Gear) = 90 teeth. A to B = 95 / 10 = 9.5:1 C to D = 90 / 110 = :1 Total ratio = x 9.5 = :1 Gear box ratio needed: 400 / = :1 (51:1) B A D C

Gear Box Speeds and ratios: Gear Box 3: Gear Box 2: Bayonet Gear Drive: Input Speed: 200 RPM Input Torque: 3 Nm Output Speed: 25 RPM Total gear ratio: 200 / 25 = 8:1 Output torque: 8 x 3 = 24Nm Gear ratio of the drive gears: Gear A (Diffuser Drive Gear) = 45 teeth. Gear B (Diffuser Idler Gear) = 145 teeth. Gear C (Cylinder Gear) = 129 teeth. A to B = 145 / 45 = :1 B to C = 122 / 145 = :1 Total ratio = x = :1 Gear box ratio needed: 8 / = (3:1) Disk Carrier Movement: Thread pitch = 6mm 4 Start Thread = 6 x 4 = 24mm Distance moved in 1 min = input RPM x Pitch = 25 x 24 = 600mm per min A C B

Epicyclic Gear Arrangement: For 1 rotation of shaft L shaft S rotates: ( 1 + NA / NS ) Gear Ratio: (1+42/14) = 4:1 with shaft S as the input. InputOutput