This past week or so has included several wonderful
opportunities to hear and network with people in the design field. We had a
visit from Mary Jane Grigsby (President of NCIDQ), heard a presentation from
Nick Christopher (an Architectural Designer at Gensler in LA), a presentation from
Debbie Nestvogal (an Interior Designer at CJMW), a visit from Paula Carr (a
Senior Associate at tvsdesign), and we took a trip to Durham where we toured
the Freelon Group Architect firm as well as the Durham County Public Library,
which they designed. All these opportunities were extremely informative for me
in reference to several aspects. Mrs. Carr talked to us about the ways they
went about process work in their firm; how they presented their work, and how
they worked with clients. The most apparent point in her presentation was that
tvsdesign was basically formed like our studios are now. That was pretty reassuring
to me. Another thing I found interesting and that really blew my mind was that
they sent off their renderings to China for someone to set up and complete. That
is still astounding me today. The trip to Durham was great as well. We were
able to hear from several associates about pertinent portfolio information, how
they work together, see the different areas in the firm, and see projects they
were working on. The other opportunities of the week were just as intriguing and
helpful as these two were. Mrs. Grigsby’s talk was enlightening as well. She
was able to give us information on taking the NCIDQ test after we graduate. The
great thing about this is that I don’t have to wait three years to take it
after graduating. We are able to take the first part of the test right after
graduation! It was a bit daunting to think that in a little over a year’s time
is when this will happen. On the other hand, it’s so exciting!
Showing posts with label IAR 311. Show all posts
Showing posts with label IAR 311. Show all posts
Sunday, February 5, 2012
Tuesday, January 17, 2012
Response to Parametric Modeling
Parametric modeling makes digital modeling easier and more
efficient for the user. This is a new approach that is surfacing in the design
world. It assigns real-world behaviors and attributes to the model. For example,
if the pitch of the roof is changed, the user does not need to be concerned
about having to go in and change the height of the walls. Parametric modeling
programs do that for you. It revises everywhere so you don’t have to.
Parametric modeling also provides a schedule for the project, keeping each
component of the model in a category: doors, windows, etc. If these parts are
changed in the graphic model, they change on the list. Even if they are changed
in the list, they are changed in the model. This program updates the changes you
make for you. Not having to do steps twice makes modeling so much easier and
less time consuming.
Having this assignment to complete has really helped me see
how simple parametric programs (such as Revit) can be. This program has the potential
to really help me in the future. Revit is so user friendly. Want to draw a
wall? Draw a wall. It’s that simple. For me, it was straightforward because I
drew the wall exactly as I thought I would draw it: by selecting the wall tool
and drawing it in its desired location. There are some setbacks to BIMs, and
those have to be dealt with. You have to make sure that when deleting a line or
point, it doesn’t delete other important things that might be attached to it, like
a wall. Some would say transitioning from a 2D program like CAD to a 3D program
(Revit) would be difficult. I have used CAD and although it’s somewhat user
friendly, Revit is much more so. The article mentions this great feature: “a
change anywhere is a change everywhere.” This means that I don’t have to double
check the cross references because it does that for me already. I enjoy that Revit
has no layers. No layers means more time in my book. You will not have to consistently
check to see if you are on the correct layer. The fact that you can go back and
forth quite effortlessly from 2D to 3D is fantastic; which basically means having
an ‘intelligent connection’ between every aspect. This allows you to see a
perspective version of the project, as it would look from all angles. This is
really a great feature.
So, pulling from my previous Revit experience as well as the
tutorial I have worked on and completed, I cannot find any annoyances of the
program as of yet. This opinion might change in the future, but I am going out
on a limb and saying that I enjoy Revit now and therefore intend on using it
extensively in the future. Having heard that Revit is being used in big time
Architect firms, it is safe to say I would like to continue to learn and grow
in this program for future endeavors.
Tuesday, January 10, 2012
Summary of Computing in Architectural Design
This article gave a brief informational history of computing
in Architecture. It was interesting to see how far it has come to help in
design. Towards the beginning in the 1970s, computing took on two categories.
One was specifically for mechanical engineering and the other exclusively for
the construction industry. This was the first generation. After these programs
were initiated, a tidal wave occurred in programming. There were constantly
people dreaming up and implementing new and better advances. Industries began
to see immediate advantages of having this illustrative software for their
designers. They were able to see new things graphically that before people
would have to hand draw. This way, it was accurate. These programs were
beginning to be used not only now for visualizing the design in an illustrative
form but to actually solve building issues before construction even began. This
first generation used more architectural ideas instead of computer science to
iterate ideas. This was supposed to help the software, but it would need a few
more years to mature to become truly user friendly.
These first generation programs needed large powerful
computers along with expensive displays in order to actually use the software
how it was meant to be. Enter personal computers! After these were introduced
in the industry, it became easier, not to mention cheaper to use these programs
for large firms. Thus began the second generation of CAD systems. It was
initially written for Apple but other companies quickly jumped on the personal
computer bandwagon. They brought with them faster, more powerful processors,
better display resolutions, and ink jet printers. This furthermore allowed the
programs to not only be used for architectural drafting, but for basic photo
realistic renderings. They hit the scene and they hit big. Clients would not
have long to wait anymore to see their projects come to life. This was a big
step forward in my book for computer modeling programs. Though computer model
was making a big leap forward with rendering, they fell backwards in the
technical aspect. Instead of having analytical capabilities that were vital in the
first generation, that was exchanged for polygons, solids, and NURBS. This all
changed in the third generation.
People knew that this was not an option. These programs
should have both the rendering and drafting capabilities. At various Universities,
they set about making this come into fruition. They all tried fusing the
non-informational solid shapes into units that would have sets of rules and qualities
to distinguish them from others. They came to find out the following: “…recent
advances in object-orient programming (OOP), artificial intelligence (AI), and
database management systems (DBMS) are the underpinnings of the third
generation CAD systems.” As of now, we are still in the third generation era.
There is a continuation to make these programs better but it is difficult to
pair ‘comprehensive building-specific data and knowledge bases” with that of “nongeometric
attributes into an effective design support system.”
Computing helps not only in the architectural
field. The brobdingnagian aspects of its existence is in the ability to
communicate. No longer do people have to be in the same room or even the same
city to talk and see ideas. They could even be a part of a meeting from their
own home if they would like. In more advanced computing, the computer or
program has the ability to do specific tasks for the user. The example given in
the article is to tell the computer, "design a staircase between these
floors" and it would. That blows my mind that we have come so far. Taking
this one step further and looking outside of using computers in design is utilizing
one day to day. Computers are used in security systems, automatic doors, cell
phones, car systems, etc. There are little computers everywhere doing big jobs
and most of those jobs never even cross our mind. Our cars have a plethora of
computers running every second. All we do is turn the key and put it in drive.
That is what makes it so interesting. I believe what hit me the most in this
article is the fact that technology has become so ingrained in our culture.
This just astounds me. Knowing where computing has come from has shown me that
this shouldn't be taken for granted but to be used with tremendous gratitude.
Computing is such an important and vital role in our culture today. It has come
so far, but I bet it will go farther. It will be fun seeing what comes next in
the computing world of design tool as well as a help in life and being a part
of the process is a truly great opportunity.
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