3D printing in autoCAD 2010
THE SKETCHUP GREEN BUILDING EXTENSION
tennis roof structures\nsoftware for designing wooden roof structures\n
Supplier: Střechy 92
Arc roof structure over two tennis courts reaches span of 42 meters (more than allowed in the used designing standard) with a reinforced concrete frame in the mid span.
Supplier: Střechy 92
The roof structure over the tennis court consists of laterally orientated truss arches. The trusses were divided into two pieces due to dimensions of the building.
The Green Building XML schema, referred to as “gbXML”, was developed to facilitate the transfer of building information stored in CAD building information models, enabling integrated interoperability between building design models and a wide variety of engineering analysis tools and models available today. Today, gbXML has the industry support and wide adoption by the leading CAD vendors, Autodesk, Graphisoft, and Bentley. With the development of export and import capabilities in several major engineering modeling tools, gbXML has become a defacto industry standard schema. Its use dramatically streamlines the transfer of building information to and from engineering models, eliminating the need for time consuming plan take-offs. This removes a significant cost barrier to designing resource efficient buildings and specifying associated equipment. It enables building design teams to truly collaborate and realized the potential benefits of Building Information Modeling.
In June of 2000, the gbXML schema was submitted for inclusion in aecXML(TM), the industry-led initiative, launched by Bentley Systems with much excitement in the summer of 1999. Shortly thereafter, gbXML became the draft schema for the Building Performance & Analysis Working Group. The gbXML.org site was created in February of 2002 to host and further stimulate development of the schema.
XML, extensible markup language, is a type of computer language that allows software programs to communicate information with little to no human interaction. This approach allows building designers to focus on what they want to do most - design beautiful, environmentally responsible buildings that use intelligent technologies to meet their client's needs at the lowest cost possible. Helping realize the promise of Building Information Modeling, gbXML allows intelligent solutions for the design, certification, operation, maintenance, and recycling of buildings. The possibilities are limited only by the collective imagination of the building design community.
gbXML - extensible markup language of communication between different softwares
Rhino can create, edit, analyze, document, render, animate, and translate NURBS curves, surfaces, and solids with no limits on complexity, degree, or size. Rhino also supports polygon meshes and point clouds. Rhino offers:
Uninhibited free-form 3-D modeling. Tools like those found only in products costing 20 to 50 times more. Accurately model any shape you can imagine.
Extreme precision. Design, prototype, engineer, analyze, document, and manufacture anything of any size no matter how small or how large.
Unrestricted editing. Revise freely without concern about how you got there or where you want to go next.
2-D drafting, annotation, and illustration. In addition, flatten 3-D surfaces into 2-D patterns and drive laser, plasma, and water jet cutters.
Large project organization. Work with both large models and large teams.
Compatibility. Exchange files with your other design, drafting, CAM, engineering, analysis, rendering, animation, and illustration software.
File read and repair. Fix extremely challenging IGES and mesh files.
Direct connection. Support for wide variety of 3-D digitizing arms, 3-D scanners, and 3-D printers.
Customization. Easy-to-use tools let both you and software developers make Rhino fit your special needs.
Short learning curve. Focus on design and visualization without being distracted by the software.
Speed. Even on an ordinary laptop computer Rhino is fast. No special hardware is required.
published by autodesk but online in various other websites
3D digital fabrication of prototypes for later assembly & construction
comaptible apps to complement autodesk products
BIM in building construction, future of AEC technology
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AECbytes "Building the Future" Series Index, links to several systems of BIM
GenerativeComponents is parametric CAD software developed by Bentley Systems, was first introduced in 2003, became increasingly used in practice (especially by the London architectural community) by early 2005[1], and was commercially released[2] in November 2007. GenerativeComponents has a strong traditional base of users in academia and at technologically advanced design firms[3]. It epitomizes the quest to bring parametric modeling capabilities of 3D solid modeling into architectural design, seeking to provide greater fluidity and fluency than mechanical 3D solid modeling[4].
Revit® Structure software integrates a multimaterial physical and an independently editable analytical model for efficient structural analysis, design, and documentation.
Revit® Architecture building design software is purpose-built for building information modeling (BIM), key for sustainable design. Make a change and it’s automatically coordinated throughout your project, so your designs and documentation stay consistent and complete.
Understanding BIM Inside and Out
BIM for Sustainable Design
BIM is Good for Business
Revit BIM Experience Award
Shaping Crowd Behavior
Freedom Tower
BIM and Sustainable Design for Civil Engineers
Autodesk sponsors McGraw-Hill Construction BIM SmartMarket Report
Autodesk sponsors McGraw-Hill Construction BIM SmartMarket Report
See the results of BIM adoption, usage, impact and infrastructure, and review case studies and interviews.
<!--startindex--> <!--stopindex--> | <!--startindex-->Autodesk sponsors McGraw-Hill Construction BIM SmartMarket Report<!--stopindex--> (pdf - 3657Kb) |
three-dimensional, real-time, dynamic building modeling software to increase productivity in building design and construction.
The process produces the BIM, which encompasses building geometry, spatial relationships, geographic information, and quantities and properties of building components
Building information modeling covers geometry, spatial relationships, geographic information, quantities and properties of building components (for example manufacturers' details). BIM can be used to demonstrate the entire building life cycle including the processes of construction and facility operation. Quantities and shared properties of materials can easily be extracted. Scopes of work can be isolated and defined. Systems, assemblies, and sequences are able to be shown in a relative scale with the entire facility or group of facilities.
BIM is a process which goes far beyond switching to a new software. It requires changes to the definition of traditional architectural phases and more data sharing than most architects and engineers are used to.
BIM is able to achieve such improvements by modeling representations of the actual parts and pieces being used to build a building. This is a substantial shift from the traditional computer aided drafting method of drawing with vector file based lines that combine to represent objects.