H are automated by using them as an ActiveX, the C# script object fails on the simplest tasks. That is, when initiating Rhino and GH externally (as by the following C# code):
Rhino5Application rhino_app = new Rhino5Application();
dynamic grasshopper = newRhino.rhino_app.GetPlugInObject("b45a29b1-4343-4035-989e-044e8580d9cf", "00000000-0000-0000-0000-000000000000") as dynamic;
The following very simple C# script component fails because it cant cast its input:
The c# code at the component is only:
Line 89 is simply casting of the input. Clearly, this makes the usage of C# component, under automation, impossible which is a major loss.
As said, when initiating Rhino and GH manually , all works well as in the following:
Any ideas why it misbehaves under automation (as an Active X ) ?
I added the gh file of this example.…
alidated the entire RhinoCivil Engineering solution and migrate to a purely Rhinoceros solution.
85 components for Grasshopper among other analysis of a field study of linear project or study platform. Dedicated to the construction and engineering firms using topographic data.
FoodForRhino
Look to YouTube
Blogger
Support email: rhinodeveloppements@gmail.com…
Salimzadeh
Assistant: Saeede Kalantari a Fabrication Project for “Structural Systems” BA Course;
Participants: Maryam Ahmadi, Amir Ansaripour, Kimia Bagheri, Mohammad Hassan Habibi, Mohammad Mehdi Zamani, Sam Sabzevari, Zeynab Seyed Zehtab, Mohammad Mehdi Shahroudi, Niloofar Taheri, Masoumeh Abedini, Pedram Feyzi, Asma Karamouz, Kimia Karbalayi, Hamed Kamalzadeh, Fateme Kianinejhad, Maryam Mohammaddoust, Faeze Motamedian, Romina Mehrbod, Sara Naderi, Yasaman Nejati, Kimia Nourinejhad, Morteza Vaziri, Mehragin Baghi, Sana Motallem, Helpers: Milad Amiri, Soroush Raesi, Mahla Behrouz, Alireza Sheykhlar, Shadi Khaleghi, Mohaddese Taheri, Alireza Mohammadi, Mehrnoush Kia
Photography: Sara Ahmadi, Hasan Habibi
Video production: Shayan Khalilbeigi
Special Thanks To Dr. K. Taghizadeh, Dr. H. Mazaherian, Dr. Y. Eslami and Mr.Aliari
With Support Of: Center Of Excellency In Architecture Technology – CEAT - , Collage of Fine Arts University of #Tehran, ‘Art And 4th Dimension’ Symposium, Iran #Fablab and #Fologram
Rhino/Grasshopper and C# Definitions of form-Finding and Member-generation :
http://bit.ly/2RUKc5i…
the Butterfly_Solution component to visualize only the last value, during the simulation.
With this setting, the optimization through Galapagos seems to start in a good way, but after some iterations it stops due to this error on blockMesh component:
Runtime error (ArgumentException): Environment variable name or value is too long.Traceback: line 420, in __setitem__, "C:\Program Files\Rhinoceros 5 (64-bit)\Plug-ins\IronPython\Lib\os.py" line 80, in getShellinit, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 69, in containerId, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 260, in _RunManager__command, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 316, in run, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 716, in command, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\case.py" line 748, in blockMesh, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\case.py" line 112, in getContainerId, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 215, in command, "C:\Users\mmel\AppData\Roaming\McNeel\Rhinoceros\5.0\scripts\butterfly\runmanager.py" line 47, in script
Anyone know how to fix it?
Thank you
…
essors. And their counter-attitude is not made because of some real reasons - it's just some kind of fear, that time will overrun them and that they will become useless in comparison to the new generation of "computer architects". That is why they are giving false replies on this subject you mentioned: about boring and soulless architecture.
But! I also need to agree that you can not be an architect if you can not draw that by hand, also and imagine the object and it's parts in 3d, in your head, without even using the 3d model from PC application.
I used to draw around 80% of all my projects on university during studies, by hand! And that part helped a lot, and gave me pretty decent base for usage of PC applications later. Drawing by hand develops a bit investigating spirit, and enables you to think about the shape, the way it looks, and the way it will look.Even today, I first do a dozen number of sketches and drawings, before going onto the drawing on PC.The same goes related to some details, that I am already drawing on PC - sometimes I feel it much more comfortable to solve them by hand, and then draw back to PC.
So my opinion on this is a bit mixed - I think that an architect needs to have a solid basis in hand drawing, in order to become a better architect. But I also think that using technology in process of creating architecture is inevitable and reasons for not using it, are pointless.
Just my two cents on this issue.…
Added by djordje to Hiteca at 4:22am on August 7, 2012
being driven by the wii nunchuck... But, here's my issue. I tried it first by having the output from the listener be a 6-digit number... so, I'm using the (CInt(Val(StoredValue))) command and it's writing out 181130... and I can easily split it up selecting the Left(x,3) or Right(x,3)... I first rant that number through a Format("{0:000000}",x) so that even if one of the accx or accy numbers were a 2-digit number (so my overall number would only have 5-digits)... with this Format function... I'm always assured a 6-digit number. And this method works... except...
If the first group of numbers coming in only has 2-digits... So, lets say the accelerometer read out of the first one (accx) is 89. Let's say the accy read out is 119. So, when I run this through the Format function to make it have at least 6 digits, my number now reads 011989. So, if I were to take the first three numbers on the right, my read out would be 989... which is much higher than my expected (60-180 range that is really coming over the Serial Port)... So, I'm back to where I started... in that I need to figure out a better way to split up the data.
Which brings me to your method. I tried it as well... in fact, I added a comma in the serial readout, so the string coming out of the listener reads 89,119. So, I can use your trick to go look for a delimeter and then read to the left and right a certain number of digits... The problem I still have is that the data going into the function is a string, and thus even if I split the 3 digits to the right of the comma out (so, my output says 119)... it's still a string, and my number parameter is still red. In your picture above, was your original 181 130 a number or a string? My guess is that it was understood as a number, because your number parameters at the end are accepting the value. But, in my case... I'm still stuck with the inability to convert a string to a number... Does this make sense? And are their any other workarounds?…
Added by Andy Payne at 9:42am on September 3, 2009
nd linear/planar tectonics. Within this new field of investigation, the Stuttgart VS will be researching into novel techniques of material mixtures and grading, associative design and double curvature surface generation.
For the second cycle of this exploration we will be based at the Institute for Lightweight Structures and Conceptual Design (ILEK) at the University of Stuttgart. Drawing from the Institute’s long history of experimentation and research on tensile structures instigated by Frei Otto in the 1960s and conducted at present by Werner Sobek, this year we will be focusing on the design and fabrication of materially graded membranes, as well as the application of UHPC and FGC on fabric formworks. The workflow followed will be divided into two stages:
1. Computing Membranes: Computational form finding methods will be taught by professional engineers and architects from ILEK and str.ucture GmbH. The aim will be to utilise the latest software technologies to form find membranes for textile structures, or fabric formworks for complex concrete structures. The results will be evaluated against criteria such as internal air pressure, as well as asymmetric and wind loading. The outcome of this research will inform the material grading procedures (i.e. changing the stiffness, thickness or porosity of the membranes themselves, or the consistency of the concrete poured into the formworks) that will follow in stage two.
2. Fabricated Grading: The digitally computed membranes or formworks will eventually be fabricated physically, utilising the workshop and robotic fabrication facilities at ILEK. The objective will be to rethink conventional research on tensile and concrete structures as isotropic constructs, by customising attributes such as materiality, reinforcement, rigidity, translucency, patterning, and porosity among others. The final, graded prototypes will be made up of mixtures of materials, all accurately engineered to respond to variable environmental, structural and aesthetic criteria, in essence forming multi-material structures that have finally caught up with the latest material developments.
Prominent Features of the workshop/ skills developed:
Teaching team consisting of AA diploma tutors and ILEK and str.ucture GmbH engineers.
Access to the Institute of Lightweight Structures and Conceptual Design (ILEK), the Materials Testing Institute and Concrete Spraying Robotic facilities at the University of Stuttgart, as well as to the office of str.ucture GmbH Structural Design Engineering.
Computational skills tuition on Grasshopper, Rhino Membrane, and Karamba.
Lectures series by leading academics and practitioners in architecture and engineering.
Fabrication of functionally graded membrane and/or concrete structures.
Eligibility
The workshop is open to current architecture and design students, PhD candidates and young professionals. Software Requirements: Rhino (SR7 or later) and Grasshopper.
Fees
The AA Visiting School requires a student fee of £595 and a young professional fee of £895 per participant, which includes a £60 Visiting membership fee.
The deadline for applications is 10 July 2017.
For more information, please visit:
http://www.aaschool.ac.uk/STUDY/VISITING/stuttgart?name=stuttgart
For inquiries, please contact:
mixedmatters@aaschool.ac.uk…
mplex the models are. If we are running multi-room E+ studies, that will take far longer to calculate.
Rhino/Grasshopper = <1%
Generating Radiance .ill files = 88%
Processing .ill files into DA, etc. = ~2%
E+ = 10%
Parallelizing Grasshopper:
My first instinct is to avoid this problem by running GH on one computer only. Creating the batch files is very fast. The trick will be sending the radiance and E+ batch files to multiple computers. Perhaps a “round-robin” approach could send each iteration to another node on the network until all iterations are assigned. I have no idea how to do that but hope that it is something that can be executed within grasshopper, perhaps a custom code module. I think GH can set a directory for Radiance and E+ to save all final files to. We can set this to a local server location so all runs output to the same location. It will likely run slower than it would on the C:drive, but those losses are acceptable if we can get parallelization to work.
I’m concerned about post-processing of the Radiance/E+ runs. For starters, Honeybee calculates DA after it runs the .ill files. This doesn’t take very long, but it is a separate process that is not included in the original Radiance batch file. Any other data manipulation we intend to automatically run in GH will be left out of the batch file as well. Consolidating the results into a format that Design Explorer or Pollination can read also takes a bit of post-processing. So, it seems to me that we may want to split up the GH automation as follows:
Initiate
Parametrically generate geometry
Assign input values, material, etc.
Generate radiance/ E+ batch files for all iterations
Calculate
Calc separate runs of Radiance/E+ in parallel via network clusters. Each run will be a unique iteration.
Save all temp files to single server location on server
Post Processing
Run a GH script from a single computer. Translate .ill files or .idf files into custom metrics or graphics (DA, ASE, %shade down, net solar gain, etc.)
Collect final data in single location (excel document) to be read by Design Explorer or Pollination.
The above workflow avoids having to parallelize GH. The consequence is that we can’t parallelize any post-processing routines. This may be easier to implement in the short term, but long term we should try to parallelize everything.
Parallelizing EnergyPlus/Radiance:
I agree that the best way to enable large numbers of iterations is to set up multiple unique runs of radiance and E+ on separate computers. I don’t see the incentive to split individual runs between multiple processors because the modular nature of the iterative parametric models does this for us. Multiple unique runs will simplify the post-processing as well.
It seems that the advantages of optimizing matrix based calculations (3-5 phase methods) are most beneficial when iterations are run in series. Is it possible for multiple iterations running on different CPUs to reference the same matrices stored in a common location? Will that enable parallel computation to also benefit from reusing pre-calculated information?
Clustering computers and GPU based calculations:
Clustering unused computers seems like a natural next step for us. Our IT guru told me that we need come kind of software to make this happen, but that he didn’t know what that would be. Do you know what Penn State uses? You mentioned it is a text-only Linux based system. Can you please elaborate so I can explain to our IT department?
Accelerad is a very exciting development, especially for rpict and annual glare analysis. I’m concerned that the high quality GPU’s required might limit our ability to implement it on a large scale within our office. Does it still work well on standard GPU’s? The computer cluster method can tap into resources we already have, which is a big advantage. Our current workflow uses image-based calcs sparingly, because grid-based simulations gather the critical information much faster. The major exception is glare. Accelerad would enable luminance-based glare metrics, especially annual glare metrics, to be more feasible within fast-paced projects. All of that is a good thing.
So, both clusters and GPU-based calcs are great steps forward. Combining both methods would be amazing, especially if it is further optimized by the computational methods you are working on.
Moving forward, I think I need to explore if/how GH can send iterations across a cluster network of some kind and see what it will take to implement Accelerad. I assume some custom scripting will be necessary.…