Program Idler Gear Center Distance (Intersection of Circles) Introduction

Similar documents
Program Enclosed Cylindrical-Wormgear Speed Reducers and Gearmotors Introduction

Program Synchronic Index of In-line Geared Systems Introduction

CH#13 Gears-General. Drive and Driven Gears 3/13/2018

Program Center Distance Change

GRADE 7 TEKS ALIGNMENT CHART

Simple Gears and Transmission

University Of California, Berkeley Department of Mechanical Engineering. ME 131 Vehicle Dynamics & Control (4 units)

Simple Gears and Transmission

Program Internal Gear Set Profile Shift Coefficients With Zero Backlash Introduction

Bevel Gears. Fig.(1) Bevel gears

Correlation to the New York Common Core Learning Standards for Mathematics, Grade K

GEARING. Theory of. Stephen. Kinetics, Geometry, and Synthesis. P. Radzevich. /Ov CRC Press yc*** J Taylor& Francis Croup Boca Raton

Introduction. Kinematics and Dynamics of Machines. Involute profile. 7. Gears

Working Range Diagram

Permanent Magnet DC Motor

11/23/2013. Chapter 13. Gear Trains. Dr. Mohammad Suliman Abuhiba, PE

APPLICATION OF A NEW TYPE OF AERODYNAMIC TILTING PAD JOURNAL BEARING IN POWER GYROSCOPE

Lifting Capacities Telescopic Boom All Terrain Crane ATC ton (118 metric ton) Link Belt

Software User s Manual. Version Tony Foale Designs 2017

Represent and solve problems involving addition and subtraction. Work with equal groups of objects to gain foundations for multiplication.

Pre-Calculus Polar & Complex Numbers

ROTATING MACHINERY DYNAMICS

TADANO MODEL TR-300XL-3-30 TON CAPACITY WORKING RANGE CHART. LIFTING CHARTS - Rough Terrain Cranes

Intersection of two circles in plane

Correlation S T A N D A R D S F O R M A T H E M A T I C A L C O N T E N T. Know number names and the count sequence.

12/6/2013 9:09 PM. Chapter 13. Gears General. Dr. Mohammad Suliman Abuhaiba, PE

KISSsys application:

OPERATING RADIUS/LIFTING HEIGHT CHART

Travel Options Florida Working with Linear Systems

Newton s 2 nd Law Activity

ARKANSAS DEPARTMENT OF EDUCATION MATHEMATICS ADOPTION. Common Core State Standards Correlation. and

correlated to the Virginia Standards of Learning, Grade 6

KISSsoft Tutorial 012: Sizing of a fine pitch Planetary Gear set. 1 Task. 2 Starting KISSsoft

CASE STUDY OF ASSEMBLY ERRORS INFLUENCE ON STRESS DISTRIBUTION IN SPUR GEAR TRAIN

CATEYE VELO WIRELESS+ CC-VT210W Quick Start. Click the button and follow the instructions.

SECTION A DYNAMICS. Attempt any two questions from this section

Uniformity Correction for Fluid Coating Head

MAGNETIC EFFECTS ON AND DUE TO CURRENT-CARRYING WIRES

Redesign of exhaust protection cover for high air flow levelling valve

Permanent Magnet DC Motor Operating as a Generator

Autodesk's VEX Robotics Curriculum. Unit 6: Gears, Chains, and Sprockets

Algebra 2 Plus, Unit 10: Making Conclusions from Data Objectives: S- CP.A.1,2,3,4,5,B.6,7,8,9; S- MD.B.6,7

Autodesk's VEX Robotics Curriculum. Unit 6: Gears, Chains, and Sprockets

How New Angular Positioning Sensor Technology Opens A Broad Range of New Applications. WhitePaper

Exercise 2-1. The Separately-Excited DC Motor N S EXERCISE OBJECTIVE DISCUSSION OUTLINE DISCUSSION. Simplified equivalent circuit of a dc motor

PROJECT 1: GO-KART DESIGN

Analysis of Torsional Vibration in Elliptical Gears

Index. Calculator, 56, 64, 69, 135, 353 Calendars, 348, 356, 357, 364, 371, 381 Card game, NEL Index

[Rohith, 5(1): January, 2016] ISSN: (I2OR), Publication Impact Factor: 3.785

Abstract In this study the heat transfer characteristics inside a rectangular duct with circular, rectangular, drop

EECS 461 Final Project: Adaptive Cruise Control

Forced vibration frequency response for a permanent magnetic planetary gear

Mechatronics and Electrical Drives

MECA0494 : Braking systems

AZM 161SK 12/12RKED/TU 024

ABB Positioners -reliability -quality -performance

COLD PLATE SOFTWARE PROGRAM ANALYZES AIRCRAFT

How and why does slip angle accuracy change with speed? Date: 1st August 2012 Version:

Power transmission. Components used to transmit power: gears, belt, clutch and brakes. Gear (Stresses) act on the tooth Lewis formula and AGMA

COMPUTATIONAL ANALYSIS TO MAXIMIZE THE HEAT TRANSFER RATE OF DOUBLE TUBE HELICAL COIL HEAT EXCHANGER

The Geometry of Involute Gears

High Speed Reluctance Machine Designed With IES-Field Analysis Programs

1.4 CORNERING PROPERTIES OF TIRES 39

ECH 4224L Unit Operations Lab I Fluid Flow FLUID FLOW. Introduction. General Description

E/ECE/324/Rev.2/Add.111/Rev.2/Amend.1 E/ECE/TRANS/505/Rev.2/Add.111/Rev.2/Amend.1

Needs of Metals Industry Applications Drive Selection of Motion Controllers

6. NC PROGRAMMJJNG G CODE / DYNA CODE LIST G DYNA CODE CODE DESCR1PTION TYPE

NEOLUX

Conceptual design of planetary gearbox system for constant generator speed in hydro power plant

Lecture 13 BEVEL GEARS

LES of wind turbine wakes

Name: Name the four properties of equality that you use to solve equations:

Power Team Mission Day Instructions

Figure 1.1 "Bevel and hypoid gears" "Modules" Figure / August 2011 Release 03/2011

Analysis of Systems with Complex Gears

Program Gear Load, Stress and Life Analysis

Belt drives. Table (5.1) types of Belts Belt type Sketch Joint Size range Centre distance yes Flat. Yes D = 8. to 4

ULTRASONIC TESTING OF RAILWAY AXLES WITH PHASED ARRAY TECHNIQUE EXPERIENCES DURING OPERATION

Simulation of Jacket Cooling of a Liner of Four Cylinder Diesel Engine for Genset Application

Design of Helical Gear and Analysis on Gear Tooth

Development of analytical process to reduce side load in strut-type suspension

CONTRIBUTION TO THE CINEMATIC AND DYNAMIC STUDIES OF HYDRAULIC RADIAL PISTON MOTORS.

Correlation to the. Common Core State Standards. Go Math! 2011 Grade K

Objective: Students will create scatter plots given data in a table. Students will then do regressions to model the data.

Busy Ant Maths and the Scottish Curriculum for Excellence Year 6: Primary 7

THE INFLUENCE OF THE MICROGROOVES ON THE HYDRODYNAMIC PRESSURE DISTRIBUTION AND LOAD CARRYING CAPACITY OF THE CONICAL SLIDE BEARING

Car Comparison Project

EEEE 524/624: Fall 2017 Advances in Power Systems

ME 466 PERFORMANCE OF ROAD VEHICLES 2016 Spring Homework 3 Assigned on Due date:

CHAPTER 5 PREVENTION OF TOOTH DAMAGE IN HELICAL GEAR BY PROFILE MODIFICATION

Missouri Learning Standards Grade-Level Expectations - Mathematics

WEEK 4 Dynamics of Machinery

Geometry. Circles. Slide 1 / 150. Slide 2 / 150. Slide 3 / 150. Table of Contents

Module 9. DC Machines. Version 2 EE IIT, Kharagpur

) and the rotor position (f r

428 l Theory of Machines

Thermal Analysis of Shell and Tube Heat Exchanger Using Different Fin Cross Section

UT Lift 1.2. Users Guide. Developed at: The University of Texas at Austin. Funded by the Texas Department of Transportation Project (0-5574)

Gear Measurement. Lecture (7) Mechanical Measurements

BS EN :2006. Hot finished structural hollow sections of non alloy and fine grain steels

Transcription:

Program 60-164 Idler Gear Center Distance (Intersection of Circles) Introduction Finding the two possible idler gear center locations is a recurring problem when designing gear trains. The problem is really one of finding the intersections of two circles. The radii of the circles are the center distances between driver and idler and between driven and idler. The usual solution from analytic geometry involves the simultaneous solution of the quadratic equations for the two circles. (x-xc1) 2 +(y-yc1) 2 = c1 2 (x-xc2) 2 +(y-yc2) 2 = c2 2 Where: xc1 = x coordinate to center #1 yc1 = y coordinate to center #1 xc2 = x coordinate to center #2 yc2 = y coordinate to center #2 c1 = center #1 to intersections c2 = center #2 to intersections x = x coordinate to intersections y = y coordinate to intersections Methods for finding the two intersections (two sets of values for x and y) from these equations requires a considerable amount of algebraic manipulation. An alternative solution uses trigonometry and is quite straight forward. Since TK Solver has the ability to add and subtract with number pairs and convert between polar and rectangular coordinates it further simplifies the procedure. In the following steps the usual equations are given first and then the TK equation. (The usual equations can also be used in TK if desired.) Step 1) ix = xc2-xc1 horizontal dist between centers #1 & #2 iy = yc2-yc1 vertical dist between centers #1 & #2 TK Step 1) (ix,iy) = (xc2,yc2)-(xc1,yc1) Step 2) c = sqrt(ix2+iy2) center distance, centers #1 to #2 Step 3) B = arctan(iy/ix) angle: x-axis to CL between #1 & #2 (adjust angle B for proper quadrant with respect to co-ordinate system centered on center #1) TK Step 1&2) (ix,iy) = ptor(c,b)

UTS Integrated Gear Software Step 4) D = arccos((c 2 +c1 2 -c2 2 )/(2*c*c1)) TK Step 4) 2*c*c1*cos(D) = c 2 +c1 2 -c2 2 angle: #1, #2 CL to idler CL's about center #1 Step 5) ix1 = c1*cos(b-d) center #1 to 1st intersection, horizontal iy1 = c1*sin(b-d) center #1 to 1st intersection, vertical ix2 = c1*cos(b+d) center #1 to 2nd intersection, horizontal iy2 = c1*sin(b+d) center #1 to 2nd intersection, vertical TK Step 5) (ix1,iy1) = ptor(c1,b-d) (ix2,iy2) = ptor(c1,b+d) Step 6) x1 = xc1+ix1 x coordinate to idler center #1 y1 = yc1+iy1 y coordinate to idler center #1 x2 = xc2+ix2 x coordinate to idler center #2 y2 = yc2+iy2 x coordinate to idler center #2 TK Step 6) (x1,y1) = (xc1,yc1)+(ix1,iy1) (x2,y2) = (xc1,yc1)+(ix2,iy2) These steps will find the two possible idler locations with the centers c1 and c2 located in any quadrant as long as the proper angle is found in step 3 (TK step 3 finds the quadrant automatically). Example If you are using UTS TK Model 60-164 for the first time you may wish to run the following example. In this example all centers are in the first quadrant. In the wizard data entry form, enter the coordinates of the main gear centers #1 and #2 along with the required center distances to the idlers, as shown in Figure 1. The solved model is shown in Report 1. 2

60-164 Idler Gear Center Distance (Intersection of Circles) Fig. 1 Report 1 None 3

UTS Integrated Gear Software Coordinates to Center #1 x co-ordinate y co-ordinate Center #1 to Idler Center Center #1 Quadrant Coordinates to Center #2 x co-ordinate y co-ordinate Center #2 to Idler Center Center #2 Quadrant CENTER DISTANCE: Ctr #1 to Ctr #2 CENTER DISTANCE: Ctr #1 to Ctr #2 IDLER CENTER LOCATIONS: Location #1 x coordinate 1 y coordinate 1 Idler #1 Quadrant IDLER CENTER LOCATIONS: Location #2 x co-ordinate 2 y co-ordinate 2 Idler #2 Quadrant AUXILIARY DATA x distance: Ctr #1 to Ctr #2 y distance: Ctr #1 to Ctr #2-1.600 in -1.500 in 5.700 in Three 3.500 in 4.700 in 4.200 in One 8.028 in 3.735 in 0.507 in One -0.660 in 4.122 in Two 5.1000 in 6.2000 in 4

60-164 Idler Gear Center Distance (Intersection of Circles) Angle: x-axis to CL, Ctr #1 & Ctr #2 Angle: CL to idler CL's about Ctr #1 x distance: Ctr #1 to idler loc #1 y distance: Ctr #1 to idler loc #1 x distance: Ctr #1 to idler loc #2 y distance: Ctr #1 to idler loc #2 We have a complete set of data for both idler locations. Note that there are no caution messages in the error message area at the top of the report. (If you wish to see the error conditions which are checked they are in procedure function "msg".) A plot of the centers is available. See Figure 2 for a plot of this example. Fig. 2 50.5599 deg 29.9482 deg 5.3351 in 2.0066 in 0.9400 in 5.6220 in 5