SIMPACK WIND. What is SIMPACK? Applications: Highlights: Accurate Fast Robust Versatile. Application

Similar documents
SIMPACK WIND. What is SIMPACK? Applications: Highlights: Accurate Fast Robust Versatile. Application

Customer Application Examples

Model Library Power Transmission

How Multibody-System Simulation Models can Support the Design of Wind Turbines

VOLUME 9, FIRST ISSUE

Drivetrain Simulation and Load Determination using SIMPACK

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

SIMPACK User Meeting May 2011 in Salzburg

Thermal Analysis of Helical and Spiral Gear Train

Gear Optimisation for Reduced Noise Levels

Address for Correspondence

Forced vibration frequency response for a permanent magnetic planetary gear

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

11. GEAR TRANSMISSIONS

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

Prediction of Dynamic Factors for Helical Gears in a High-Speed Multibody Gearbox System

GEAR CONTENTS POWER TRANSMISSION GEAR TYPES OF GEARS NOMENCLATURE APPLICATIONS OF GEARS VELOCITY RATIO GEAR TRAINS EXAMPLE PROBLEMS AND QUESTIONS

Part VII: Gear Systems: Analysis

Influential Criteria on the Optimization of a Gearbox, with Application to an Automatic Transmission

RELIABILITY IMPROVEMENT OF ACCESSORY GEARBOX BEVEL DRIVES Kozharinov Egor* *CIAM

Multibody modelling of shuttling excitation in spur and helical geared transmissions

Multibody Dynamics Simulations with Abaqus from SIMULIA

AN OPTIMAL PROFILE AND LEAD MODIFICATION IN CYLINDRICAL GEAR TOOTH BY REDUCING THE LOAD DISTRIBUTION FACTOR

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

KISSsoft 03/2013 Tutorial 15

PRECISION BELLOWS COUPLINGS

Structural Analysis of Differential Gearbox

Determination and improvement of bevel gear efficiency by means of loaded TCA

Chapter 3. Transmission Components

Determination of the optimum flank line modifications for gear pairs and for planetary stages

KISSsoft 03/2017 Tutorial 15

Structural Stress Analysis of Reduction Helical Gear box Casing

Five Cool Things You Can Do With Powertrain Blockset The MathWorks, Inc. 1

Sheet 1 Variable loading

UNIT -I. Ans: They are specified by the no. of strands & the no. of wires in each strand.

LMS Imagine.Lab AMESim Ground Loads and Flight Controls

KISSsys Application 008: Gearbox Concept Analysis

Gearheads H-51. Gearheads for AC Motors H-51

Lecture (7) on. Gear Measurement. By Dr. Emad M. Saad. Industrial Engineering Dept. Faculty of Engineering. Fayoum University.

Gear Tooth Geometry - This is determined primarily by pitch, depth and pressure angle

The Path to Better Fuel Efficiency

Typical Stress & Deflection Analysis of Spur Gear in Spur Gear Assembly

Variable Valve Drive From the Concept to Series Approval

ANALYSIS OF GEAR QUALITY CRITERIA AND PERFORMANCE OF CURVED FACE WIDTH SPUR GEARS

Modeling Contact with Abaqus/Standard. Abaqus 2018

Estimation of Reliable Design Loads During Extreme Strength and Durability Events at Jaguar Land Rover. SIMPACK User Meeting May 2011

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

ANALYSIS OF SPUR GEAR GEOMETRY AND STRENGTH WITH KISSSOFT SOFTWARE

ME6601 DESIGN OF TRANSMISSION SYSTEMS

o f Tip Relief on Transmission

The Application of Simulink for Vibration Simulation of Suspension Dual-mass System

ANALYSIS OF SURFACE CONTACT STRESS FOR A SPUR GEAR OF MATERIAL STEEL 15NI2CR1MO28

Vehicle Dynamic Simulation Using A Non-Linear Finite Element Simulation Program (LS-DYNA)

ASM Brake Hydraulics Model. dspace Automotive Simulation Models ASM Brake Hydraulics Model

Tendenze attuali nei metodi di calcolo per progettare gearbox Dr. Ulrich Kissling KISSsoft AG, Bubikon, Svizzera

INVOLUTE SPIRAL FACE COUPLINGS AND GEARS: DESIGN APPROACH AND MANUFACTURING TECHNIQUE

Modeling and Simulate Automotive Powertrain Systems

IJESRT. Scientific Journal Impact Factor: (ISRA), Impact Factor: 2.114

Analysis of Spur Gear Box Using Software tool Ansys

Dr. Daho Taghezout applied magnetics (CH 1110 Morges)

Vehicle Planetary Gearbox Simulation

Automotive NVH with Abaqus. Abaqus 2018

Mathematical modeling of the electric drive train of the sports car

Methodology for Designing a Gearbox and its Analysis

The Gear Whine Noise and vibro-acoustic emission of gear-box

GPK for Design and Rating of Industrial Gearboxes

Large engine vibration analysis using a modular modelling approach

SPMM OUTLINE SPECIFICATION - SP20016 issue 2 WHAT IS THE SPMM 5000?

SIMOTICS S-1FT7 Servomotors. The Compact Servomotors for High-Performance Motion Control Applications. Motors. Edition April 2017.

Composites Modeler for Abaqus/CAE. Abaqus 2018

Analysis of Torsional Vibration in Elliptical Gears

Gear Measurement. Lecture (7) Mechanical Measurements

Scania complements testing by applying a system simulation approach

Key words: torque sensor, force sensor, torque measurement, embedded sensor, planar coils, pcb coils, ferrite, planar system


Analysis of Systems with Complex Gears

Optimization of Design Based on Tip Radius and Tooth Width to Minimize the Stresses on the Spur Gear with FE Analysis.

Tutorials Tutorial 3 - Automotive Powertrain and Vehicle Simulation

alpha Components & Systems Low backlash planetary gearheads Servo right-angle gearheads Mechanical systems

Vibration Measurement and Noise Control in Planetary Gear Train

Static And Dynamic Analysis Of Bevel Gear Set

Model Based Design: Balancing Embedded Controls Development and System Simulation

Design of Helical Gear and Analysis on Gear Tooth

Real-time simulation of the 2014 Formula 1 car

Slewing Drives by Liebherr. Series-production Gearboxes

Static And Modal Analysis of Tractor Power Take Off (PTO) Gearbox Housing

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

Analytical impact of the sliding friction on mesh stiffness of spur gear drives based on Ishikawa model

INCREASE IN FATIGUE LIFE OF SPUR GEAR BY INTRODUCING CIRCULAR STRESS RELIEVING FEATURE

Modeling Rubber and Viscoelasticity with Abaqus. Abaqus 2018

SPMM OUTLINE SPECIFICATION - SP20016 issue 2 WHAT IS THE SPMM 5000?

A Method to Define Profile Modification of Spur Gear and Minimize the Transmission Error

CAE Services and Software BENTELER Engineering.

The Gear Whine Noise: the influence of manufacturing process on vibro-acoustic emission of gear-box

VI-CarRealTime. Vehicle Dynamics. Capabilites. Benefits

Chapter seven. Gears. Laith Batarseh

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

Analysis of Geotechnical Problems with Abaqus. Abaqus 2018

Analysis on natural characteristics of four-stage main transmission system in three-engine helicopter

July Next consortium meeting on August 18, 2015 at Ohio State Univ., Columbus, Ohio.

Transcription:

Accurate Fast Robust Versatile SIMPACK WIND Application What is SIMPACK? SIMPACK is a general-purpose multi-body simulation (MBS) software tool which is used to aid the development of any mechanical or mechatronic device, ranging from single components through to complete systems (e.g. wind turbines, vehicles, and high performance Formula 1 engines). All SIMPACK products are 100% compatible. SIMPACK Wind is an add-on module tailored to the specific requirements of the wind turbine sector. Applications: Simulation of any wind turbine design Resonance analysis Stochastic and transient response Geometric and material modification Optimization Durability Hardware-Software-in-the-loop Highlights: Unlimited flexibility Extreme non-linear system behavior (e.g. emergency braking) Acoustic analyses in the frequency and time domain Interfaces to aerodynamic codes (e.g. from NREL and ECN) Scalable detail and complexity Batch jobs runs Automatic analysis reports Flexible rotorblade generator Available wind turbine models with highly detailed drivetrains

Features: Detailed gear pairs, originally developed for Formula 1 Dynamic separation of gear pairs Flexible body generation within SIMPACK Importation of flexible bodies from FEM codes Non-linear bending Easy implementation of user specific code Interfaces to: Aerodynamic software CAD software Control software FEM software Fluid dynamics simulation tools Fatigue analysis software Optimization tools In-house software Operating systems: In co-operation with: Windows and Linux. See: /platforms.html SIMPACK Customer Solution Centers Germany Worldwide Headquarters SIMPACK AG Friedrichshafener Strasse 1 82205 Gilching, Germany Phone: +49 (0)8105 77266-0 Fax: +49 (0)8105 77266-11 sales@simpack.de USA SIMPACK US Inc. Robert Solomon 25925 Telegraph Road, Suite 101 Southfield Michigan 48033, USA Phone: +1 248 996-8750 Fax: +1 248 996-8930 Mobile: +1 251 923 9566 info@simpack-us.com France SIMPACK France S.A.S. Immeuble "Le President", 4eme étage 40, Avenue Georges Pompidou 69003 Lyon, France Phone : +33 (0)437 5619-71 info@simpack.fr Japan SIMPACK Japan K.K. 5F Okubo Bldg. 2-4-12 Yotsuya Shinjuku-ku Tokyo 160-0004, Japan Phone: +81 (0)3 5360-6631 Fax: +81 (0)3 5360-6632 info@simpack.jp www.simpack.jp Great Britain SIMPACK UK Ltd. The Whittle Estate Cambridge Road Whetstone Leicester LE8 6LH, UK Phone: +44 (0)116 27513-13 Fax: +44 (0)116 27513-33 Mobile: +44 (0)7767 416 656 info@simpack.co.uk www.simpack.co.uk 2011-02-15

w. Accurate Fast Robust Versatile SIMPACK DRIVETRAIN Application What is SIMPACK? SIMPACK is a general purpose, threedimensional multi-body simulation software, uniquely suited to the analysis and optimization of any type of drivetrain system. Primarily used for simulating drivetrains within the automotive, wind turbine and railway sectors, SIMPACK can be applied to any field of engineering where power transmission is required. All SIMPACK products are 100% compatible. Applications: System simulation of any embedded drivetrain design Resonance analysis Stochastic and transient response Optimization Stress and durability analysis Hardware/software-in-the-loop Highlights: Simulation of any design Extreme non-linear system behavior, e.g. emergency braking Acoustic analyses in the frequency and time domain Interfaces to third party software Numerous possible levels of fidelity Batch job runs Automatic analysis reports KOMAI TEKKO Inc.: Wind turbine KWT300

Features: Drivetrain specific elements: - Universal/Cardan and constant velocity elements - Bearings, elastomeric and hydro mounts - Gearboxes (gear shift, differential, planetary, etc.) - Detailed gear pairs (individual tooth contact) - Flywheels, clutches and synchromeshes Flexible body generation within SIMPACK Importation of flexible bodies from common FEM codes Non-linear bending Easy implementation of user specific code Interfaces to: FEM software Control software CAD software CFD software Fatigue analysis software Aerodynamic codes Optimization tools Operating systems: Windows and Linux. See: /platforms.html SIMPACK Customer Solution Centers Germany Worldwide Headquarters SIMPACK AG Friedrichshafener Strasse 1 82205 Gilching, Germany Phone: +49 (0)8105 77266-0 Fax: +49 (0)8105 77266-11 sales@simpack.de USA SIMPACK US Inc. Robert Solomon 25925 Telegraph Road, Suite 101 Southfield Michigan 48033, USA Phone: +1 248 996-8750 Fax: +1 248 996-8930 Mobile: +1 251 923 9566 info@simpack-us.com France SIMPACK France S.A.S. Immeuble "Le President", 4eme étage 40, Avenue Georges Pompidou 69003 Lyon, France Phone : +33 (0)437 5619-71 info@simpack.fr Japan SIMPACK Japan K.K. 5F Okubo Bldg. 2-4-12 Yotsuya Shinjuku-ku Tokyo 160-0004, Japan Phone: +81 (0)3 5360-6631 Fax: +81 (0)3 5360-6632 info@simpack.jp www.simpack.jp Great Britain SIMPACK UK Ltd. The Whittle Estate Cambridge Road Whetstone Leicester LE8 6LH, UK Phone: +44 (0)116 27513-13 Fax: +44 (0)116 27513-33 Mobile: +44 (0)7767 416 656 info@simpack.co.uk www.simpack.co.uk 2011-02-15

Steven Mulski, SIMPACK AG Software Gear Pair Enhancements with SIMPACK Version 8904 Several new functionalities are available with the SIMPACK Gear Pair module in SIMPACK version 8904. Not only has the visualization and handling of bevel gears and force arrows been vastly improved but major new functionalities (e.g. tooth profile and flank modifications, easy modelling of non-parallel axes, etc.) have been added. HISTORY Initially developed for Formula 1 high performance engines back in 2003 (by Lutz Mauer, an executive board member of SIMPACK AG), the SIMPACK Gear Pair functionality has since been used in a large variety of industrial sectors, e.g. automotive, wind, rail, shipping, aerospace, concrete mills, material handling, etc. GENERAL In SIMPACK, a large variety of elements are available for the simulation of torque converters. Depending upon the task at hand, elements of various level of detail may be used for achieving the optimum balance between solver speed and accuracy. For example, simple one-dimensional elements may be used for torsional analyses whereas gearbox elements (e.g. planetary gear stage) may be used for more detailed analyses when reaction moments on the housing are required. For simulations where individual tooth contact forces are required, the SIMPACK Gear Pair force element, FE 225, may be used. This element enables the additional analyses of the meshing forces and moments, shaft bending, bearing Fig. 2: Gear box with Gear Pair forces and other resultant forces Fig. 1: Bevel gear with crowning forces, and a host of other pertinent analyses (Fig. 2). The gear pair FE 225 is an analytical element, and therefore, extremely fast simulation times can be achieved. Graphical primitives are defined for the gear wheels which are subsequently used for the force calculations. This results in accurate animation of the gear tooth contacts and play. The element includes the following functionality [1, 2]: Involute spur, helical and bevel gears Internal and external gears Profile Shift Backlash and friction Single and multiple tooth contact (internal excitations due to tooth meshing) Dynamically changing gear pair center distance and backlash (particularly important for floating suns (Fig. 3) and elastically mounted shafts) The major gear pair enhancements with version 8904 are: Rack and pinion gearing Bevel gear primitive Tooth modification Flank modification Shuttling forces Easy slicing for non-parallel gear wheels and gear wheels with flank modification Easy handling of output values and animation of contact forces GEAR PAIR PRIMITIVES MAJOR ENHANCEMENTS With bevel gears, a new parameter, the Rim thickness, has been added for a more realistic graphical representation (Fig. 4). For all gear pair types, tooth and flank modification has been added. The modifications are primarily used for smoothing the non-linear internal excitations due to the continually changing number of teeth in contact. The following modification types have been added: Tip (Fig. 5) Root Circular Left and Right Side Lead Crowning (Fig. 6) Lead Angular Bias (Twist) Input Function Array All modification types can be input for the right and left flanks or for both together. Fig. 3: Motion of floating sun within a planetary stage ( IMM, TU Dresden) SIMPACK News September 2010 25

Software Steven Mulski, SIMPACK AG Fig. 4: Bevel gear primitives GEAR PAIR FORCE ELEMENT MAJOR ENHANCEMENTS For simulating gear pairs with non-parallel axes, slicing of the gear wheels is necessary [3]. Previous to version 8904, extra gear wheel primitives and force elements had to be used for this purpose. This functionality is now achieved by setting single parameter (i.e. Number of slices ) within the gear pair force element. The handling of the offset angles for helical gears is now fully automatic. Slicing is also necessary if flank modification is used. Shuttling forces, i.e. the axial displacement of the contact forces, has now been implemented. In the case of helical gears, this will result in an additional tilt moment. The graphical representation of rack gears has been available for a long time now. With Fig. 5: Tip profile modification version 8904, the calculation of the rack and pinion forces has also been implemented (Fig. 7). With version 8904, the user can now easily switch on and off, and choose between, various output value types. This enables easier handling and a more efficient use of data storage space. The different types of output are described below. GEAR PAIR DATA CHECK In order to check the input parameters and initial conditions of the gear pairs within a model, a user can perform a Test Call. This will result in a list being generated for each gear pair consisting of important input parameters and calculated data. Information such as the theoretical center distance, radial offset, axial offset, transverse contact ratio, overlap ratio, and total contact ratio will now be readily available. GEAR PAIR OUTPUT VALUES By way of parameterization, a user can choose for which gear pairs the Basic Output Values will be generated. These values include such data as the relative Fig. 6: Crowning, left and right flank angles and angular velocities, total normal contact stiffness and the dynamic transmission error. Similarly, a user can also choose which Advanced Output Values are to be saved (Fig. 8). These values are primarily used for analyzing the coupling forces of the gear pairs, either for the sum of all teeth in contact or the individual tooth-pair contacts. In addition the Advanced Output Values enable easy animation of the force arrows in the PostProcessor (Fig. 9). After an integration run is complete a user can subsequently choose which output values to generate. Re-running the time integration is not necessary. Only reperforming measurements is required. CONCLUSION SIMPACK version 8904 represents a major milestone in the development of the gear Fig. 7: Rack and pinion gear Fig. 8: User choice for advanced output values pair module. New functionalities such as tooth and flank modification and automatic slicing and force arrow visualization, enable not only easier and faster model generation but also improved accuracy and quicker analyses. Although a significant development step has been achieved, the demanding and varied applications of the gear pair element will continue to result in further, more advanced requirements. The development of the gear pair element does not have one static functionality goal, after which the development can be seen as being completed, but rather a continually Fig. 9: Animation arrows of normal loads Indiv. load (fl_n) i,k advancing goal to which subsequent further SIMPACK development will ensure that the gear pair element can accompany industrial users long into the future. REFERENCES [1] L. Mauer, GearWheels in SIMPACK, SIMPACK News, July 2004 [2] L. Mauer, Modeling and Simulation of Drive Line Gears, SIMPACK News, July 2005 [3] E. Pfleger, Simulation of the Dynamic Behaviour of Nose Suspension Drives for Rail Vehicles Using SIMPACK-GearWheel, SIMPACK User Meeting 2006 All articles and presentations available at 26 SIMPACK News September 2010

SIMPACK Gear Pair SIMPACK Pair Gear SIMPACK is a general purpose 3D Multi- Body Simulation software, uniquely suited to the analysis and optimization of any type of drivetrain system. Primarily used for simulating drivetrain dynamics within the automotive, wind turbine and railway sectors, the SIMPACK Gear Pair can be applied to any field of engineering where power transmission is required. All SIMPACK products are 100% compatible. Applications Simulation of any embedded drivetrain design Linear and non-linear resonance analysis Stochastic and transient response Gear whine and rattle Optimization of the dynamic performance Stress and durability analysis Software-in-the-Loop Highlights Detailed 3D gear wheels Dynamically changing center distance and backlash Profile and flank modification Internal excitations due to meshing teeth Shuttling forces Animation of contact forces Extreme non-linear system behavior, (e.g. emergency braking) SIMPACK AG, Friedrichshafener Strasse 1, 82205 Gilching, Germany Phone: +49 (0)8105 77266-0, Fax: +49 (0)8105 77266-11 www.simpack.com

Accurate Fast Robust Versatile SIMPACK with Simulink SIMPACK for use with Simulink Interfaces SIMPACK for use with Simulink Interfaces are add-on modules for combining computer aided control system design (CACSD) with SIMPACK. SIMAT linear model export Export of linear MBS System matrices as S-Function Quick Design of control systems Linear State-Space matrices export to Simulink, e.g. for optimising control loops in Simulink. SIMAT co-simulation SIMPACK for use with Simulink co-simulation interface (exchange of data at discrete time steps) Use of all SIMPACK and Simulink modeling elements within nonlinear models TCP/IP tool-coupling Co-Simulation of SIMPACK and Simulink, e.g. for coupling hydraulics to MBS. MatSIM Export of non-linear Simulink model to SIMPACK as control element, e.g. for a wind turbine pitch controller. Code Export non-linear model export Export of non-linear SIMPACK model to Simulink as S-Function, e.g. for HiL-/SiL-applications. Import of Simulink models as SIMPACK control elements Simulink model completely embedded in SIMPACK (as dynamically linked library) Variable-step size SIMPACK solver Analysis in time- & frequency domain Exporting SIMPACK model as Simulink S-function Complete non-linear MBS model export Parameterization, SIMPACK solver export (optional) Analysis in time- & frequency domain Hil-/SiL-applications

What is SIMPACK? SIMPACK is a general-purpose multi-body simulation (MBS) software tool which is used to aid the development of any mechanical or mechatronic device, ranging from single components through to complete systems (e.g. wind turbines, vehicles, and high performance Formula 1 engines). All SIMPACK products are 100% compatible. Applications: Combining control with MBS dynamics Any kind of mechatronic application Full integration of MBS into control environment Full integration of CACSD into high-end MBS environment Hardware/Software-in-the-Loop Linear and non-linear analyses in time- and frequency domain Highlights: Detailed mechatronic systems Multiple Interfaces available (choice dependent upon simulation requirements) Easy to use for SIMPACK and/or Simulink users SIMPACK Solver use with exported Simulink models (MatSIM) Code Export for use on real-time environments Full parameterization of exported SIMPACK models (Code Export) Operating systems: Windows and Linux. See: /platforms.html MATLAB and Simulink are registered trademarks of The MathWorks, Inc. SIMPACK Customer Solution Centers Germany Worldwide Headquarters SIMPACK AG Friedrichshafener Strasse 1 82205 Gilching, Germany Phone: +49 (0)8105 77266-0 Fax: +49 (0)8105 77266-11 sales@simpack.de USA SIMPACK US Inc. Robert Solomon 25925 Telegraph Road, Suite 101 Southfield Michigan 48033, USA Phone: +1 248 996-8750 Fax: +1 248 996-8930 Mobile: +1 251 923 9566 info@simpack-us.com France SIMPACK France S.A.S. Immeuble "Le President", 4eme étage 40, Avenue Georges Pompidou 69003 Lyon, France Phone : +33 (0)437 5619-71 info@simpack.fr Japan SIMPACK Japan K.K. 5F Okubo Bldg. 2-4-12 Yotsuya Shinjuku-ku Tokyo 160-0004, Japan Phone: +81 (0)3 5360-6631 Fax: +81 (0)3 5360-6632 info@simpack.jp www.simpack.jp Great Britain SIMPACK UK Ltd. The Whittle Estate Cambridge Road Whetstone Leicester LE8 6LH, UK Phone: +44 (0)116 27513-13 Fax: +44 (0)116 27513-33 Mobile: +44 (0)7767 416 656 info@simpack.co.uk www.simpack.co.uk 2011-02-15