exploran los principios básicos de Grasshopper en Rhino 5 para desarrollar algoritmos de superficies responsivas a datos generados por dispositivos y aplicaciones como: iPhone/iPad/iPod, Android, GPS, Kinect, etc.
Es necesario traer tu Laptop con Rhino y Grasshopper instalados.
Rhino: http://download.rhino3d.com/rhino/4.0/ev aluation/download/
Grasshopper: http://download.rhino3d.com/Grasshopper/ 1.0/wip/download/
Cupo Limitado
info@dimensiontallerdigital.com
$4,000.00…
an almost planar tissue (your case) can cause a variety of issues up to the undo able state (metal parts/components grow in size as well for no reason). See forces estimated by FF below.
2. Therefor I strongly suggest to consider Plan B (a) mastermind a secondary "anchor" capability in order to achieve a far more stable system (b) use a mount design that can support this (and comply with the attractor concept of yours). Here's a variable mount custom system (mostly machined AND not cast) that is suitable for the scope (Rhino reads the stp file OK .... but makes a colossally big file - thus I attach here the original).
3. On first sight lot's of things in this system appear "odd". For instance: is it stable? Why these double cables are used? How far can be adjusted? (that's a classic case for feature driven parametric design - not doable with Rhino).
4. This concept (strut axis exported only) is tested in FORMFINDER and some other far more complex membrane apps that I use quite often (not RhinoMembrane). Here's is what FF tells us about:
Observe a different kind of "stress" when this is converted to radial type:
5. If you insert the stp file to the Rhino file provided (exactly as exported from FORMFINDER - no mods of mine of any kind) you'll see what goes where (and why). That way the usage of double cables is rather obvious (and a lot other things - for instance the way that the struts achieve "equilibrium", see the slots in the base mount plate.
6. If this approach is worth considering your definition requires some serious rethinking (far more simpler/manageable with the drawback that the real parts they are "static" they can adjust only as far this particular solution allows them to do - controlling them parametrically is clearly impossible with the current state of R/GH capabilities).`
All in all: this case works because the cables push the anchor points downwards and the struts push them upwards.
more in a while
…
You can create Design Options using the Iris Layer component!
For each set of geometries that you create, you can assign a layer and define whether it will be visible or not in Virtual Reality on the
Added by IrisVR to IrisVR at 8:34am on January 23, 2017
the contours they show are all generated from 3 arc second SRTM files, even if in the United States where higher resolution data is available from 1 arc second. Also the contours are likely 2D in their map since. Granted, their contours may look nicer, but I think it's just because they're processing the HGT file with the GDAL Contour app to generate a Shapefile.
That being said, starting last year the USGS started releasing 1 arc second SRTM data for the rest of the world outside of the US. It's not the friendliest website, but I've been accessing it from here (be warned it will probably take a few minutes to load). You could download the appropriate tile and use the SRTM Topo component and get better looking resolution than you've seen with the 3 arc second data.
There's also the possibility you could do the same thing OSM is doing, but with the higher resolution data. Download the GDAL library and run the gdal_contour.exe file on the 1 arc second HGT file and you'll get a shapefile with all the contours. Elk doesn't directly work with shape files, but you could use Meerkat GIS to import the shapefile. I've only done a few quick tests, but I've had trouble with the scaling with this method, both using Meerkat and using Autodesk's Map3d to read the shapefile, so perhaps it's my inexperience with gdal_contour. It also looks like it's making the 1°x1° tile's square instead of scaling the X values as it goes farther from the equator. Nothing that's insurmountable, but still you should watch out for it.
Regards,
-Tim
…
hat aren’t completely there. BIM will have to continue to evolve some more if their supporters want to get to realize the promise that still is. I can’t say much about PLM, but I would say that both BIM and PLM should be considered in future developments of GH and Rhino. David has said several times that some GH limitations regarding geometry and data structures (central to interoperability) are actually Rhino limitations. So, I wouldn’t put so much pressure on David for this, or at least I would distribute the pressure also on the core Rhino development team.
Talking about Rhino vs. GH geometry, there is one (1) wish I have: support for extrusion geometry. GH already inputs extrusion elements from Rhino, but they are converted to breps. Is not a bad thing per se. The problem is when you need to bake several breps that make the Rhino file to weight several hundred MB. When these breps are actually prismatic, extrusion-like solids, is a shame that they aren’t stored as Rhino V5’s extrusion geometry in a file of just a couple of MB (I overcame this once with an inelegant RhinoScript that wasn’t good for other people). This was one of RhinoBIM’s main arguments. We can develop a structural model made of I-beams in GH using the Extrude components. We should be able to bake them as extrusions. That would also work for urban models with thousands of prismatic massing buildings (e.g. extruded footprints). Even GH’s boxes are baked as breps! Baking boxes as extrusions could be practical for voxelated or Minecraft-like models.
(2) Collaborative network support. Maybe with worksession handling, or something that aloud project team members to work on a single definition or in external references or something alike. I know there is another Rhino limitation on this, but maybe clusters are already going in that direction?
And maybe on the plug-ins domain:
(3) Remote control panel that could be really “remote”, like from other computer or device. There is an old Android App for that, but is not only a matter of updating. I mean, it would be great to control a slider with the accelerometer of an Android phone, but to have that on an iPhone will require another development team. If GH could support networks, a remote counterpart of a RCP plug-in could be developed as a cross-platform web app. I don’t know if you can access accelerometer functionality through HTML5 already, but for now, asking a client (or an spectator or any stakeholder for that matter) to control your sliders from gestures of his/her own phone would be awesome (maybe Firefly will fill that hole?).
(4) GIS support. GH already imports .shp files. Meerkat can even access the database, but what about writing to shapefiles or generating our own with databases processed/generated in GH?
(5) SketchUp support. Not only starchitects and corporations are using GH in the AEC. There are a lot of small firms, freelancers and students interested. Most of them use SketchUp for 3D modeling (not CATIA, neither Revit). Yes, you can import/export .skp from Rhino, but if GH could support nested block at bake time (also mentioned by others), it could write .skp files with complex relations of blocks (that are called components in SketchUp) and nested groups, going beyond what Rhino can export.
(6) Read/Write other formats. There are some challenges with proprietary formats that are not completely supported by Rhino, but they’re still a lot of open formats that are relevant to the fields of GH users, like stl and ply for 3D-printing. It could be nice to write mesh colors to a ply for 3D-printing a colored prototype based on GH colors. There are others, like IGES, STEP, COLLADA, etc. and 2D, like svg, odg and pdf. Some of them could offer special formatting options like custom data that the format supports but nobody uses just because is impractical to access this from direct modeling environments (but not from visual programming).
--Ernesto…
mations we use a STANDARD thingy (Plane.WorldXY) VS any other plane (that's what the Orient does). This applies for blocks/cats/dogs/anything: meaning that if anyone in the present or the future uses such a "component" he knows the origin (especially if other CAD apps are used in parallel).
2. NEVER EVER make a thing (i.e. the profile) to be oriented "off center" (in the occasion domain start/end values for x/y). If you want to do that treat the destination plane accordingly. That way you build up a mentality were the "source" is standard - so to speak.
3. RHS (but HEB/HEA/IPN/IPE blah, blah) fillets are related with thickness (in real-life) ... therefore when you offset (always inwards: meaning neg values for counter clock wise closed curves) ... take into consideration that simple fact.
…
igned by this software may be terrible, this is how the future is being shaped, so an understanding of the technology is important.
http://bimandintegrateddesign.com/2014/10/24/googles-bim-busting-app-for-design-and-construction/
https://vimeo.com/107291814
-Projects are due May 8th at the WAAC Final Gallery (I think at 5:30 PM). You will have your board(s) pinned up and your physical model complete underneath. The location is still being worked out, so I will let you know when I know. After the physical submission, a digital submission is required as well. There should be at minimum -
A board with the discussed drawings and images below, named LastName_FirstName_FinalProject.pdf
A photo of your physical model (if not included on the board), named
LastName_FirstName_FinalModel.pdf.
These should be posted on the dropbox sometime before the last day of the semester. Your project will not be graded if you do not physically submit on May 8th and digitally submit sometime before the semester is over.
-Project brief is below
Project Brief: Up until now, you have been using grasshopper to develop, analyze, and fabricate architectural ideas in a very controlled format. The final project is a chance to combine this knowledge with your own design intent and aspirations. The project will use specific deliverables to spur growth, but also allow for you, the designer, to do what you please within the following boundaries.
Requirements:
# open project# must be a design project # story of what you are designing and why you are using grasshopper - specific design intent# must have physical scale model # must have 24” x 36” board - made in Adobe InDesign or Photoshop # grasshopper definition image # 1 artistic rendering - any format - with scale figures # 5 iterations of your project must be presented # 1 diagram to visually describe your project # text describing project # process drawings - photos/sketches/models/other iterations# this is the bare minimum - to have an excellent project, one must go above and beyond these requirements# talk to me if you have out of the box ideas of presenting/ teams / etc...
That is all, there are no assignments due this week, just keep working on those projects. I am available for help during the week, just email or post in the forum. USE THE GRASSHOPPER FORUM IF YOU ARE STUCK. There are many people on here that are way smarter than I that can help you.
See you all next week!…
to carry out without them. We will go through these plugins learning how they work, main features and advantages playing with practical exercises.
We will highlight key concepts in advanced design, architecture and engineering: topology, form-finding, structural optimization, fractals, loops, genetic and repetitive algorithms...
Also, we will see how to capture nice views and designs from your scripting, with a correct export option, animations...
This course is On-line live sessions (18hours), using our platform online.controlmad.com
STRUCTURE:
- Interactive flexible geometry
- Generative design
- Reaction diffusion
- Geometry from DNA parameters
- Generative path visualization
- Growth simulation by sub-D
- Generating and genetic algorithms
- Visualization techniques
Main plug-ins shown:
> Kangaroo: The most famous and downloaded app for Grasshopper (it is built in the current Grasshopper for Rhino 6). It is a live physics engine interactive simulation, optimization and form-finding directly within Grasshopper
> Galapagos: available in the current Grasshopper build, it is a platform for the application of Evolutionary Algorithms to be used on a wide variety of problems by non-programmers
> Biomorpher: Interactive Evolutionary Algorithms (IEAs) helping designers to explore the wide combinatorial space of parametric models without always knowing where you are headed.
> Anemone: works using repetitive algorithms to create loops or sequencial structures like those ones seen in fractals.
Dates: July 10,11,17 and 18 (total 4 days)
Registration deadline: Monday, July 5th
Timetable: Saturday and Sunday 9,30 - 2pm (Madrid Time Zone CEST)…
Added by Diego Cuevas at 3:40am on September 11, 2018