Massing Design with support of Structural Optimization

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Comment by Morgan Rohla on March 4, 2023 at 2:40am

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Comment by Andy Murray on November 14, 2022 at 12:24am

Massing design is a process that begins with a spatial system and ends with an overall massing concept that is based on a set of rules, standards or principles. The goal of the massing design process is to develop a building's character, its identity and its overall form while also working within the context of other projects. I would recommend hempstead web design company to hire best web designers. Massing design can be defined as the art of developing a building's character and identity through the use of colors, materials and shapes. It can also be described as the process of creating an overall form for a project in order to accomplish certain goals. Massing design can be used for residential buildings, commercial buildings and even public spaces such as parks and plazas.

Comment by Andy Murray on October 22, 2022 at 6:11am

Massing design is a method of designing a building that minimizes the amount of material in the structure. The design allows for ease of construction, and a reduction in structural materials. Try this sinus surgeon louisville ky for best ideas. This can be accomplished by maximizing the use of structural steel, which results in high-strength buildings with low construction costs. The concept is simple: construct a building using only structural steel members, or as much steel as possible.

Comment by DonaldClark on November 19, 2021 at 1:16am

Typically you can vary the amplitude and frequency of the input signal and watch what happens to the output. But those pattern generators are somewhat limited in their capabilities so it is beneficial to hire college paper writer for quick academic help. The fundamental problem is that there's only so much room on the front panel for knobs.

Comment by Igor Mitrić Lavovski on June 22, 2015 at 3:43am

Hi Djordje, 

Good idea with wind! I will certainly try that!

Comment by Situ on June 18, 2015 at 12:14pm

Hi djordje

       Thanks for all your great advice and helps.

       I will try to test that optimization with wind load in later future.

       

       

Comment by djordje on June 18, 2015 at 6:21am

Hi Situ,

You are doing an amazing work with these optimization karamba projects! Thank you for sharing it.

I thought you understood what I said in here on Ladybug Wind boundary profile component, because no reply was given. Please if something is not clear do not hesitate to comment back, in that way some other user might see your reply and post a solution.

A more in detail continuation of the upper mentioned reply would be:

Find the Z coordinate of area centroid of your curtain wall panels.

Then by using "windProfileHeight_" and/or "distBetweenVec_" inputs from Ladybug Wind boundary profile component find the wind speed (m/s) at each of Z coordinate values from the previous sentence.

Convert those wind speed values into pressure (N/m2):
p = (1.25*(windSpeed^2))/2.
Derive the point load force from the pressure (Newtons):

F = p * A   (A being an area of a curtain wall panel in m2)

Fnode = F/4   ("disposing" the F force to each support-node of your curtain wall panel).

Apply all these Fnode forces to your panels which are somewhat normally oriented to the wind direction. These will be your wind pressure forces. On the opposite side of the building, we can use a rule of a thumb and apply the same Fnode forces/2. These are your wind suction forces.

On lateral panels nodes (lateral in comparison to the wind direction) you can apply Fnode forces, in magnitude Fnode*(1 to 1.5). These are lateral suction forces.

Have in mind that wind load in structural engineering is a complicated subject. Most codes and equations currently used come from a very simplified 2D or 3D (cylinder, box) models. In reality one would need to use CFD software for detailed analysis (Ansys, NX, SolidWorks...), or if the project is actually going to be built then wind tunnel tests.