OCCT Release Notes V720
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The Leader in Advanced .Dwg Technology
October 17 2017 TEIGHA® DRAWINGS The leader in advanced .dwg technology www.opendesign.com Copyright © 2017 Open Design Alliance, All Rights Reserved BACKGROUND Teigha Drawings is a stand-alone independent SDK available for developers working with the .dwg, .dxf, and .dgn file formats. It was developed by Open Design Alliance (ODA), a technology consortium that has been providing interoperability tools for the engineering software industry since 1998. BUSINESS OVERVIEW INTRODUCTION ODA has a long history of experience with the .dwg file format, dating back to 1998. Our software has kept the .dwg file format open and universally accessible for the past 20 years. Today, in addition to providing interopera- bility, we are leveraging our vast experience with .dwg to make it a tool of choice for modern application development. INDUSTRY-PROVEN TECHNOLOGY Teigha Drawings has been powering thousands of mission critical engi- neering applications for more than a decade. It is a mature, high-quality and trusted solution for building CAD applications. ACCELERATE TIME-TO-MARKET In addition to turn-key support for .dwg and .dgn files, Teigha Drawings includes components for a variety of other common engineering tasks including version control, visualization and publishing. Using Teigha Drawings as a base, you can build more sophisticated applications in less time, using fewer resources. ATTRACTIVE LICENSING Teigha Drawings is offered under a fixed fee license with no royalties for cost-effective deployment. PRODUCT PORTFOLIO SUPPORTED FILE VERSIONS .dwg/.dxf -
Reference Manual Ii
GiD The universal, adaptative and user friendly pre and postprocessing system for computer analysis in science and engineering Reference Manual ii Table of Contents Chapters Pag. 1 INTRODUCTION 1 1.1 What's GiD 1 1.2 GiD Manuals 1 2 GENERAL ASPECTS 3 2.1 GiD Basics 3 2.2 Invoking GiD 4 2.2.1 First start 4 2.2.2 Command line flags 5 2.2.3 Settings 6 2.3 User Interface 7 2.3.1 Top menu 8 2.3.2 Toolbars 8 2.3.3 Command line 11 2.3.4 Status and Information 12 2.3.5 Right buttons 12 2.3.6 Mouse operations 12 2.3.7 Classic GiD theme 13 2.4 User Basics 15 2.4.1 Point definition 15 2.4.1.1 Picking in the graphical window 16 2.4.1.2 Entering points by coordinates 16 2.4.1.2.1 Local-global coordinates 16 2.4.1.2.2 Cylindrical coordinates 17 2.4.1.2.3 Spherical coordinates 17 2.4.1.3 Base 17 2.4.1.4 Selecting an existing point 17 2.4.1.5 Point in line 18 2.4.1.6 Point in surface 18 2.4.1.7 Tangent in line 18 2.4.1.8 Normal in surface 18 2.4.1.9 Arc center 18 2.4.1.10 Grid 18 2.4.2 Entity selection 18 2.4.3 Escape 20 2.5 Files Menu 20 2.5.1 New 21 2.5.2 Open 21 2.5.3 Open multiple.. -
Solid Edge Overview
Solid Edge Siemens PLM Software www.siemens.com/solidedge Solid Edge® 벽 형상 반의 2D/3D CAD 으로 직접 모델링의 속도 및 유연성과 치수 반 설계의 정밀 제 을 결합하여 빠르고 유연 설계 경험을 제공합니다. Solid Edge 뛰난 부품 및 셈블리 모델링, 도면 작성, 투명 데터 관리 및 내 유 요 해석(FEA) 을 제공하여 점점 더 복잡해지 제품 설계를 간단하게 수행할 수 있도록 하 Velocity Series™ 폴리의 핵심 구성 요입니다. Solid Solid Edge 일반적인 계 Edge 직접 모델링의 속도 및 운데 유일하게 설계 유연성과 치수 반 설계의 관리 과 설계자들 매일 정밀 제 을 결합하여 하 CAD 도구를 결합 빠르고 유연 설계 입니다. Solid Edge의 경험을 제공합니다. 고객은 여러 지 확 Solid Edge는 PDM(Product Data 뛰난 부품 및 셈블리 Management) 솔루션을 모델링, 도면 작성, 투명 선택하여 설계를 생성하 데터 관리 및 내 즉 관리할 수 있습니다. 유 요 해석(FEA) 을 또 실적인<t-5> 협업 제공하여 점점 더 복잡해지 관리 도구를 통해 보다 제품 설계를 간단하게 수행할 효율적으로 설계 팀의 활을 수 있도록 하 Velocity Series 조정하고 잘못 폴리의 핵심 구성 의통으로 인 류를 요입니다. 줄일 수 있습니다. 업의 엔지니링 팀은 Solid 제품과 로세의 Edge 모델링 및 셈블리 복잡성 점차 제조 부문의 도구를 하여 단일 주요 관심로 떠르고 부품부터 수천 개의 구성 있으며, 전 세계 수천 개의 요를 하 조립품 업들은 Solid Edge를 르까지 광범위 제품을 하여 갈수록 증하 쉽게 개발할 수 있습니다. 복잡성 문제를 적극적으로 또 맞춤형 명령 및 해결해 나고 있습니다. 해당 구조 워크플로를 통해 업들은 Solid Edge의 모듈식 보다 빠르게 특정 업계의 통합 솔루션 제품군을 통해, 공통 을 설계할 수 먼저 CAD 업계의 혁신 있으며, 셈블리 모델 내 을 활하고 설계를 부품을 설계, 분석 및 성하여 류 없 제품으로 수정하여 부품의 정확 맞춤 진입할 수 있습니다. -
Openscad User Manual (PDF)
OpenSCAD User Manual Contents 1 Introduction 1.1 Additional Resources 1.2 History 2 The OpenSCAD User Manual 3 The OpenSCAD Language Reference 4 Work in progress 5 Contents 6 Chapter 1 -- First Steps 6.1 Compiling and rendering our first model 6.2 See also 6.3 See also 6.3.1 There is no semicolon following the translate command 6.3.2 See Also 6.3.3 See Also 6.4 CGAL surfaces 6.5 CGAL grid only 6.6 The OpenCSG view 6.7 The Thrown Together View 6.8 See also 6.9 References 7 Chapter 2 -- The OpenSCAD User Interface 7.1 User Interface 7.1.1 Viewing area 7.1.2 Console window 7.1.3 Text editor 7.2 Interactive modification of the numerical value 7.3 View navigation 7.4 View setup 7.4.1 Render modes 7.4.1.1 OpenCSG (F9) 7.4.1.1.1 Implementation Details 7.4.1.2 CGAL (Surfaces and Grid, F10 and F11) 7.4.1.2.1 Implementation Details 7.4.2 View options 7.4.2.1 Show Edges (Ctrl+1) 7.4.2.2 Show Axes (Ctrl+2) 7.4.2.3 Show Crosshairs (Ctrl+3) 7.4.3 Animation 7.4.4 View alignment 7.5 Dodecahedron 7.6 Icosahedron 7.7 Half-pyramid 7.8 Bounding Box 7.9 Linear Extrude extended use examples 7.9.1 Linear Extrude with Scale as an interpolated function 7.9.2 Linear Extrude with Twist as an interpolated function 7.9.3 Linear Extrude with Twist and Scale as interpolated functions 7.10 Rocket 7.11 Horns 7.12 Strandbeest 7.13 Previous 7.14 Next 7.14.1 Command line usage 7.14.2 Export options 7.14.2.1 Camera and image output 7.14.3 Constants 7.14.4 Command to build required files 7.14.5 Processing all .scad files in a folder 7.14.6 Makefile example 7.14.6.1 Automatic -
Geometry Interfaces 12.1 12.1
ANSYS® Geometry Interfaces 12.1 RELEASE Features Robust, Bidirectional CAD Interfaces for Engineering Simulation Bidirectional CAD Connections 4CATIA® V5 Unequalled Depth, Unparalleled Breadth 4UG™ NX™ With direct interfaces to all major computer-aided design (CAD) systems, support of 4Autodesk® Inventor® 4Autodesk® MDT additional readers and translators, and an integrated geometry modeler exclusively 4CoCreate Modeling™ focused on analysis, ANSYS offers the most comprehensive geometry-handling solutions 4Pro/ENGINEER® for engineering simulation in an integrated environment. 4SolidWorks® 4Solid Edge® Bidirectional, Associative and CAD-neutral Easy Fit, Adaptive Architecture IPDM Interface The industry-leading ANSYS® WorkbenchTM computer-aided engineering (CAE) 4Teamcenter Engineering integration environment is CAD-neutral and supports bidirectional, direct, associative CAD Readers interfaces with all major CAD systems. 4 CATIA V4 With geometry integration solutions from ANSYS, you can use your existing, native CAD 4 CATIA V5 geometry directly, without translation to IGES or other intermediate geometry formats. 4ACIS® ANSYS has offered native, bidirectional integration with the most popular CAD systems 4IGES for more than 10 years. ANSYS also provides integration directly into the CAD menu 4Parasolid® 4STEP bar, making it simple to launch world-class ANSYS simulation technologies directly from 4STL your CAD system. 4ANSYS BladeGen 4Monte Carlo N-Particle Parameter and Dimension Control Advanced Technology, Best in Class Geometry Export ANSYS geometry-handling solutions include best-in-class CAD integration technology in 4Parasolid 4IGES an industry-leading, CAD-neutral CAE integration environment. This provides direct, 4STEP associative, bidirectional interfaces with all major CAD systems, including Autodesk 4ANSYS ANF Inventor, CATIA V5, CoCreate Modeling, Autodesk® Mechanical Desktop®, 4Monte Carlo N-Particle Pro/ENGINEER, Solid Edge, SolidWorks and Unigraphics®. -
Metadefender Core V4.12.2
MetaDefender Core v4.12.2 © 2018 OPSWAT, Inc. All rights reserved. OPSWAT®, MetadefenderTM and the OPSWAT logo are trademarks of OPSWAT, Inc. All other trademarks, trade names, service marks, service names, and images mentioned and/or used herein belong to their respective owners. Table of Contents About This Guide 13 Key Features of Metadefender Core 14 1. Quick Start with Metadefender Core 15 1.1. Installation 15 Operating system invariant initial steps 15 Basic setup 16 1.1.1. Configuration wizard 16 1.2. License Activation 21 1.3. Scan Files with Metadefender Core 21 2. Installing or Upgrading Metadefender Core 22 2.1. Recommended System Requirements 22 System Requirements For Server 22 Browser Requirements for the Metadefender Core Management Console 24 2.2. Installing Metadefender 25 Installation 25 Installation notes 25 2.2.1. Installing Metadefender Core using command line 26 2.2.2. Installing Metadefender Core using the Install Wizard 27 2.3. Upgrading MetaDefender Core 27 Upgrading from MetaDefender Core 3.x 27 Upgrading from MetaDefender Core 4.x 28 2.4. Metadefender Core Licensing 28 2.4.1. Activating Metadefender Licenses 28 2.4.2. Checking Your Metadefender Core License 35 2.5. Performance and Load Estimation 36 What to know before reading the results: Some factors that affect performance 36 How test results are calculated 37 Test Reports 37 Performance Report - Multi-Scanning On Linux 37 Performance Report - Multi-Scanning On Windows 41 2.6. Special installation options 46 Use RAMDISK for the tempdirectory 46 3. Configuring Metadefender Core 50 3.1. Management Console 50 3.2. -
A New Era for Mechanical CAD Time to Move Forward from Decades-Old Design JESSIE FRAZELLE
TEXT COMMIT TO 1 OF 12 memory ONLY A New Era for Mechanical CAD Time to move forward from decades-old design JESSIE FRAZELLE omputer-aided design (CAD) has been around since the 1950s. The first graphical CAD program, called Sketchpad, came out of MIT [designworldonline. com]. Since then, CAD has become essential to designing and manufacturing hardware Cproducts. Today, there are multiple types of CAD. This column focuses on mechanical CAD, used for mechanical engineering. Digging into the history of computer graphics reveals some interesting connections between the most ambitious and notorious engineers. Ivan Sutherland, who won the Turing Award for Sketchpad in 1988, had Edwin Catmull as a student. Catmull and Pat Hanrahan won the Turing award for their contributions to computer graphics in 2019. This included their work at Pixar building RenderMan [pixar. com], which was licensed to other filmmakers. This led to innovations in hardware, software, and GPUs. Without these innovators, there would be no mechanical CAD, nor would animated films be as sophisticated as they are today. There wouldn’t even be GPUs. Modeling geometries has evolved greatly over time. Solids were first modeled as wireframes by representing the object by its edges, line curves, and vertices. This evolved into surface representation using faces, surfaces, edges, and vertices. Surface representation is valuable in robot path planning as well. Wireframe and surface acmqueue |march-april 2021 5 COMMIT TO 2 OF 12 memory I representation contains only geometrical data. Today, modeling includes topological information to describe how the object is bounded and connected, and to describe its neighborhood. -
Openscad User Manual/Print Version Table of Contents Introduction First
OpenSCAD User Manual/Print version Table of Contents 1. Introduction 2. First Steps 3. The OpenSCAD User Interface 4. The OpenSCAD Language 1. General 2. Mathematical Operators 3. Mathematical Functions 4. String Functions 5. Primitive Solids 6. Transformations 7. Conditional and Iterator Functions 8. CSG Modelling 9. Modifier Characters 10. Modules 11. Include Statement 12. Other Language Feature 5. Using the 2D Subsystem 1. 2D Primitives 2. 3D to 2D Projection 3. 2D to 2D Extrusion 4. DXF Extrusion 5. Other 2D formats 6. STL Import and Export 1. STL Import 2. STL Export 7. Commented Example Projects 8. Using OpenSCAD in a command line environment 9. Building OpenSCAD from Sources 1. Building on Linux/UNIX 2. Cross-compiling for Windows on Linux or Mac OS X 3. Building on Windows 4. Building on Mac OS X 10. Libraries 11. Glossary 12. Index Introduction OpenSCAD is a software for creating solid 3D CAD objects. It is free software (http://www.gnu.org/philosophy/free-sw.html) and available for GNU/Linux (http://www.gnu.org/) , MS Windows and Apple OS X. Unlike most free software for creating 3D models (such as the well-known application Blender (http://www.blender.org/) ), OpenSCAD does not focus on the artistic aspects of 3D modelling, but instead focuses on the CAD aspects. So it might be the application you are looking for when you are planning to create 3D models of machine parts, but probably is not what you are looking for when you are more interested in creating computer- animated movies. OpenSCAD is not an interactive modeller. -
Turbocad Pro 17 Autocad 2010 Comparisons-03-23
T ur b T oCA ur A b u oCA D toC P TurboCAD vs. AutoCAD ro AD D Comparative Matrix P Pla 20 ro ti 1 1 n 0 7 um 1 7 Suggested Retail Price $1,295 $1,495 $3,995 U SABILITY & INTERFACE Command Line Fully Customizable User Interface and Preferences Advanced Handle-Based Editing Drawing Performance - (TurboCAD includes Redway3d drawing engine) Draw Order by Layer Explode Viewports Layer Filters SNAP Prioritization True Units Retained between Drawings with Different Unit Settings Drawing Compare (1) 2D Drafting and Editing Auto Tools (for Scaling, Sizing, Positioning, Rotating, and Movement) 2D Drawing, Editing, and Modifying Bezier Curves Transparent and Bitmap Fills CTB Print Style Support Drafting and Detailing Palette - create associative sections and cut planes Index Color Support Layer Properties Manager Smart and Quick Dimension Tools Xclip Support 3D Modeling 3D Solid Modeling and Editing 3D Terrain Modeling 3D Shelling, Lofting and Surfaces 3D Deformable Modeling 3D Pattern Copy Tools Quick Pull Tool Parametric Part Maker and Manager History Tree with Editor Mechanical 2D Geometric and Dimension Constraints Adhesive Symbol Tool (fully parametric) Branched Lofting Face-to-Face Lofting Gear Contour Tool Geometric Tolerance Tool Surface Roughness and Weld Symbols Page 1 of 2 T ur b T oCA ur A b u oCA D toC P TurboCAD vs. AutoCAD ro AD D Comparative Matrix P Pla 20 ro ti 1 1 n 0 7 um 1 7 Architectural Intelligent (Parametric) Attribute-rich, Architectural Objects (2) Walls (Self-Healing; -
CAD Data Exchange
CCAADD DDaattaa EExxcchhaannggee 2255..335533 LLeeccttuurree SSeerriieess PPrrooff.. GGaarryy WWaanngg Department of Mechanical and Manufacturing Engineering The University of Manitoba 1 BBaacckkggrroouunndd Fundamental incompatibilities among entity representations Complexity of CAD/CAM systems CAD interoperability issues and problems cost automotive companies a combined $1 billion per year (Brunnermeier & Martin, 1999). 2 BBaacckkggrroouunndd (cont’d) Intra-company CAD interoperability Concurrent engineering and lean manufacturing philosophies focus on the reduction of manufacturing costs through the outsourcing of components (National Research Council, 2000). 3 IInnffoorrmmaattiioonn ttoo bbee EExxcchhaannggeedd Shape data: both geometric and topological information Non-shape data: graphics data Design data: mass property and finite element mesh data Manufacturing data: NC tool paths, tolerancing, process planning, tool design, and bill of materials (BOM). 4 IInntteerrooppeerraabbiilliittyy MMeetthhooddss Standardized CAD package Standardized Modeling Kernel Point-to-Point Translation: e.g. a Pro/ENGINEER model to a CATIA model. Neutral CAD Format: e.g. IGES (Shape-Based Format ) and STEP (Product Data-Based Format) Object-Linking Technology: Use Windows Object Linking and Embedding (OLE) technology to share model data 5 IInntteerrooppeerraabbiilliittyy MMeetthhooddss (Ibrahim Zeid, 1990) 6 CCAADD MMooddeelliinngg KKeerrnneellss Company/Application ACIS Parasolid Proprietary Autodesk/AutoCAD X CADKey Corp/CADKEY X Dassault Systems/CATIA v5 X IMS/TurboCAD X Parametric Technology Corp. / X Pro/ENGINEER SDRC / I-DEAS X SolidWorks Corp. / SolidWorks X Think3 / Thinkdesign X UGS / Unigraphics X Unigraphics / Solid Edge X Visionary Design System / IronCAD X X (Dr. David Kelly 2003) 7 CCAADD MMooddeelliinngg KKeerrnneellss (cond’t) Parent Subsidiary Modeling Product Company Kernel Parametric Granite v2 (B- Pro/ENGINEER Technology rep based) Corporation (PTC) (www.ptc.com) Dassault Proprietary CATIA v5 Systems SolidWorks Corp. -
19 Siemens PLM Software
Chapter 19 Siemens PLM Software (Unigraphics)1 Author’s note: As discussed below, this organization has had a multitude of different names over the years. Many still refer to it simply as UGS and, although that name is no longer formally used, I have used it throughout this chapter. McDonnell Douglas Automation In order to understand how today’s Siemens PLM Software organization and the Unigraphics software evolved one has to go back to an organization in Saint Louis, Missouri called McAuto (McDonnell Automation Company), a subsidiary of the McDonnell Aircraft Corporation. The aircraft industry was one of the first users of computer systems for engineering design and analysis and McDonnell was very proactive in this endeavor starting in the late 1950s. Its first NC production part was manufactured in 1958 and computers were used to help layout aircraft the following year. In 1960 McDonnell decided to utilize this experience and enter the computer services business. Its McAuto subsidiary was established that year with 258 employees and $7 million in computer hardware. Fifteen years later, McAuto had become one of the largest computer services organizations in the world with over 3,500 employees and a computer infrastructure worth over $170 million. It continued to grow for the next decade, reaching over $1 billion in revenue and 14,000 employees by 1985. Its largest single customer during of this period was the military aircraft design group of its own parent company. A significant project during the 1960s and 1970s was the development of an in- house CAD/CAM system to support McDonnell engineering. -
PTC Creo® Parametric
Data Sheet PTC Creo® Parametric THE ESSENTIAL 3D PARAMETRIC CAD SOLUTION PTC Creo Parametric gives you exactly what you need: the most robust, scalable 3D product design toolset with more power, flexibility and speed to help you accelerate your entire product development process. Where breakthrough products begin • Increase productivity with more efficient and flexible 3D detailed design capabilities Engineering departments face countless challenges • Increase model quality, promote native and as they strive to create breakthrough products. They multi-CAD part reuse, and reduce model errors must manage exacting technical processes, as well as the rapid flow of information across diverse • Handle complex surfacing requirements with ease development teams. In the past, companies seeking • Instantly connect to information and resources on CAD benefits could opt for tools that focused on the Internet – for a highly efficient product ease-of-use, yet lacked depth and process breadth. Or, development process they could choose broader solutions that fell short on usability. With PTC Creo Parametric, companies get The superior choice for speed-to-value both a simple and powerful solution, to create great products without compromise. Through its flexible workflow and sleek user interface, PTC Creo Parametric drives personal engineering PTC Creo Parametric, helps you quickly deliver the productivity like no other 3D CAD software. The highest quality, most accurate digital models. With industry-leading user experience enables direct its seamless Web connectivity, it provides product modeling, provides feature handles and intelligent teams with access to the resources, information snapping, and uses geometry previews, so users can and capabilities they need – from conceptual design see the effects of changes before committing to them.