可以导入草图和方案来设计齿轮箱和动力传动系统。 | 可运行和生成多种报告,包括:NVH、系统变形、耐久性和有限元等报告。 |
MASTA 的优势可精准快速的从草图和导入的方案设计传动系统 全面了解客户所有工况内机械部件的使用寿命 在产品开发的早期确认潜在失效模式 在设计阶段快速预测关键性能指标 在便利的虚拟环境中轻松探索传动系统布局、零部件选型和设计、材料和制造工艺 可为任何传动系统和传动链做整体系统仿真 在设计阶段加入制造仿真功能以减少工艺开发的时间和成本 MASTA 软件基于独特的C语言平台架构 | 核心功能运用零部件和设计数据库的综合选择 设计整个传动系统和动力传动系统 齿轮参数优化 齿轮、轴承、轴和花键的耐久性分析 系统变形分析和优化 系统NVH分析和优化 齿轮加载接触分析 轴疲劳和应力分析 换挡性能和质量分析 系统动力学 齿轮刀具设计和制造工艺仿真 壳体和轴变形 齿轮变形分析 传动链仿真 行星轮均载 多参数全局优化界面 |
MASTA is made up of a core module and over 75 additional modules with additional design components & advanced analysis functionality, MASTA can be highly tailored to specific user or industry requirements.
The core module provides a CAE environment for the design of gearbox & transmission systems using shafts, bearings & cylindrical gears.
2D design view with interactive 3D view
Comprehensive bearing database with over 44,000 bearings in the catalogue
Add cylindrical gears, shafts, bearings, clutches, synchronisers, splines & other couplings
Specify power and point loads and configure load cases and duty cycles
Edit shaft profiles including using imported 2D CAD drawing (.dwg/.dxf)
Power flow
System deflection
Cylindrical gear loading and misalignments
Cylindrical gear rating to ISO 6336, DIN 3990 and AGMA 2101-D04
Bearing loading and misalignments
Bearing rating to ISO 76, ISO 281 and ISO/TS 16281
Shaft fatigue analysis & rating to DIN 743, AGMA or SMT
Macro geometry optimisation for strength or contact ratio
The next generation in commercial grade CAE design, analysis and optimisation for mechanical transmissions
Below summarizes the major updates in tbe latest release of MASTA. For further details get in touch.
New module for import a full FE mesh of a housing or shaft and then perform a condensation on this model within MASTA
Results for the full FE model may be expanded in MASTA to view stresses, deflections, mode shapes and energy content
Key features include:
Importing Full FE models to MASTA
Performing stiffness and mass reduction in MASTA
View deflections, stresses and strains following a System Deflection analysis in MASTA
Expand FE results to view mode shapes and modal energy content following an NVH analysis in MASTA
Allows users to predict crack initiation risk for TIFF based on the method of MackAldener. The module uses results from MASTA’s Loaded Tooth Contact Analyses and visualises the internal stress and fatigue stress.
Understanding of such a failure is becoming more essential to transmission development and optimisation can now be made early on in the design stage.
A number of developments have been included regarding MASTA’s Loaded Tooth Contact Analysis. In particular:
Including the effect of extended, off line of action, tip contact for both spur and helical gears
Including the rim and web in the FE model for Advanced LTCA analyses
Adding a number of further analysis results to the contact chart
Additionally it is now possible to fix the Contact Chart scale to facilitate comparison between results
A new option is available to run the LTCA analysis only for the first planetary mesh (i.e. the first planet angle)
A new module that enables simulation of the shaving force variation from the gear tip to root according to the shaving method, which determines whether the tooth profile will have additional profile/lead error
This newly revised and updated module considers the variety of static errors in the machining process for gear hobbing. The process simulation module can reproduce the gear geometry, including deviations, under the manufacturing conditions
New Coefficient of Friction calculation methods are now available in addition to the previously available ISO/TR 14179-1:2001 method
Indication of which are the loaded gear flanks. In Powerflow mode you can visualise flank loading in both 2D and 3D Views. In other modes the option is available in 2D View
For ISO gear materials specify that a material is shot peened and then specify a Shot Peening Bending Stress Benefit percentage for inclusion in the gear rating
When performing cylindrical gear rating to AGMA 2101-D04 it is now possible to specify to use the AGMA 2000-A88 and ANSI/AGMA ISO 1328-1-B14 Tolerance Standards in addition to the existing AGMA 2015-1-A01 standard
When performing cylindrical gear rating to ISO 6336 it is now possible to specify to use the ISO 1328-1:2013(E)/ISO 1328-2:1997(E) Tolerance Standard in addition to the existing ISO 1328-1:1995(E)/ISO 1328-2:1997(E) standard
It is possible to select the Tolerance Rounding System to be Metric or Imperial
Include a table of misalignments calculated with respect to the gear mesh point in addition to the previous results that are calculated with respect to the cross point
CAD reports have been enhanced from previous releases and now include the ability to add more data and information in CAD Gear Data Sheets
Include images with property labels where values are updated to reflect the design/analysis values.
Specify the CAD report template
Include user-specified X, Y factors for Dynamic Equivalent Load calculation for cylindrical roller bearings which can take axial load in addition to estimated factors.
Bring in basic design from LDP. This initial implementation is limited to internal or external cylindrical gear pairs and only macro geometry is currently imported.
Three new tables are included in the default report for an imported FE component in Design mode that show the expected and actual locations of the FE nodes on the connected component as an aid to assess the accuracy of the imported FE
Specify whether FE condensation nodes for the bearings have been created at the centre of the bearing or at the centre of the bearing race. This is especially useful for bearings such as taper roller bearings where the race of the bearing is not always the full width of the bearing
Cylindrical gear misalignment calculations based on alternative misalignment definitions
Use LTCA Stresses when performing gear rating according to AGMA 2101-D04 in Micro Geometry mode by selecting the option at the bottom of the AGMA rating options in the Cylindrical Gear Rating section of the Settings
A new option to specify the Welding/Structural Factor, Xw, as used in scuffing calculations
Full release notes are available on request or from the SMT Portal.
基于AGMA 925-A03 或 ISO/TR 13989进行圆柱齿轮胶合分析
圆柱齿轮齿根应力分析
基于Gleason或AGMA 2005 – C96 (设计) / 2003 – B97 (校核)进行螺旋锥齿轮设计和校核
基于Gleason或2003 – B97 进行零度锥齿轮设计和校核
直齿锥齿轮设计和校核
准双曲面齿轮设计和校核
基于GB10085, GB10087 和 GB10088进行蜗轮蜗杆设计
克林格恩贝格齿轮设计和强度校核
基于KN 3029 (设计) 和 KN 3030(强度校核)进行准双曲面齿轮设计和强度校核
基于KN 3028 (设计) 和 KN 3030 (强度校核) 的螺旋锥齿轮设计和强度校核
行星齿轮设计
传动带、链、液力变矩器、CVT、联轴器设计
基于DIN 7190进行紧配合设计和尺寸设计
花键设计和强度校核-基于DIN 5480, GB/T 3478, ISO 4156, JIS B1603 和 SAE(ANSI B92.1)进行花键设计;基于 SAE设计指南进行花键强度校核
微观修形;对轮齿自动进行网格化分或采用基于有限元/赫兹公式的LTCA进行分析
轮齿加载接触分析
圆柱齿轮、螺旋锥齿轮或准双曲面齿轮
行星齿轮
参数研究工具
传递效率分析-根据 ISO/TR 14179-1 计算轴承、齿轮和密封件的功率损失
轴承高级分析
高级系统变形
NVH分析和模拟(基于有限元动力学模型,对于壳体和异形轴,通过从有限元软件(ANSYS/NASTRAN)导入浓缩刚度矩阵和质量矩阵,建立完全的动力学模型,进行耦合系统模态分析,根据MASTA计算得到或用户输入的TE,进行系统响应的齿轮啸叫分析,在设计阶段即可发现并解决潜在的NVH问题
通过与有限元软件的接口将差壳和异型轴的刚度矩阵和三维模型导入MASTA
系统分析时考虑壳体刚度对齿轮轴承运行错位量的影响
进行异形轴变形和应力分析
支持从有限元软件(ANSYS/NASTRAN)导入浓缩刚度矩阵和质量矩阵
圆柱齿轮滚、插、剃、磨模拟
圆柱齿轮插齿刀或滚齿刀轮廓与刀尖优化,得到最大齿轮弯曲强度
圆柱齿轮滚齿、插齿、剃齿工艺模拟,在精确考虑齿坯误差,机床精度,刀具误差以及加工用量的影响情况下
预测加工后齿轮的齿廓、齿向和周节误差
以图形和 ISO1328/AGMA 2015标准精度等级两种形式报告
螺旋锥齿轮和准双曲面齿轮制造
机床调整参数、刀具优化
齿轮齿面形状模拟和优化
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