Wednesday, August 31, 2005

Saving Trees

In response to your concerns about the existing trees …

The City of Falls Church has offered their “Tree Preservation Standards and Specifications” for adoption by George Mason University. There are effective and inexpensive strategies that the university is open to using with respect to the Krasnow addition.

Their pamphlet: “Tree Preservation during Construction” is available on their website under the “Tools” sidebar:
http://www.ci.falls-church.va.us/government/developmentServices/arborist.html

As one of their representatives said, “It’s great to hear of an institute that was created for thinking – thinking”!

Monday, August 29, 2005

Architecture with Neuroscience Applications

(Following is a summary of our discussion from the recent Woods Hole workshop on “Mapping Memory of Space and Place” where we used the Krasnow addition as a case study to structure a working session on design approach with neuroscience applications.)

Discussion Group Participants included:
Matthew A. Wilson, Ph.D., Massachusetts Institute of Technology, group moderator
Meredith Banasiak, ANFA
John Eberhard, FAIA, ANFA
Roger Goldstein, FAIA, Goody Clancy Associates
Merlin Lickhalter, FAIA, FACHA, Academy of Architecture for Health
Fred Marks, AIA, ANFA
Upali Nanda, Ph.D., ANFA
James Olds, Ph.D., Krasnow Institute for Advanced Study
Steven Senft, Ph.D., Krasnow Institute for Advanced Study
Ron Skaggs, FAIA, HKS Architects

Krasnow, as an interdisciplinary cognitive research institute, requires the following 4 categories of spaces:
- Collaborative space (nodes and hubs and the links between them)
- Research Labs
- Core facilities
- Retreat/sanctuary

Collaborative spaces:
Studies on topological continuity in rat experiments indicate that spaces are stored in memory according to their contiguity versus their metric distances (cognitive proximity versus metric proximity). Impediments and barriers – visual, physical or psychological – create disparate memories of distinct spaces. A barrier within a space confers two spaces versus one single space. This cognitive disconnect/separation of space also restricts physical movement between areas. By increasing physical connectivity, we can reduce the impediments/barriers to collaboration, the impediments being defined as anything that segregates space and therefore people. This can be achieved by increasing physical connectivity (thereby decreasing the number of memories of disparate spaces), or, in instances where a disconnect is forced to occur (e.g., a vertical level change between floors), we can create a necessity for the barrier to be transgressed. The free flowing of ideas is directly related to the free flowing of the architecture; collaborative free flow must be contiguous space.

Architects have conventionally grouped things like demountable walls, doors, and transparent (glass) walls / windows into a “soft-barrier” category (like the semi-permeable membrane). Research in animal studies has shown that these are perceived by the brain as barriers nonetheless. A window may create an opportunity for visual exploration but it does not serve to unite two spaces. Though regarded as easily surmountable barriers, they still disconnect the space, serve to create disparate memories of spaces, and restrict movement. When a partition is put in place, one space physically and perceptually becomes multiple spaces and results in a diminished opportunity for movement between spaces.

We have mentioned one of the two major issues of collegiate design – movement between spaces. In addition to getting people to flow to a space, we also need to design stopping points – to encourage people to linger within a space. “Placemaking” can be achieved with spatial calibrators: 3-D objects which are interactive make a greater memory (and therefore richer experience) because they engage more neural responses. More cells are dedicated when space is interactive across diverse or multiple behaviors (versus strictly circulation, or spaces where nothing happens) with the result being that the associated places are more salient, more important.

Two-dimensional architectural attempts to define a space (such as changing the wall color) have proven to be weak cues with respect to placemaking. The most effective strategy is to place 3-D, interactive objects and instruments at critical intersections.

Daylight is a successful orienting cue and wayfinding device because it provides an external frame of reference as well as clues to cardinal direction, time of day, and weather. Circulation spaces are often devoid of natural light because they occur in the most inner regions of a building, flanked by rooms on all sides. A narrow, double loaded corridor (meaning that it can be entered from rooms on either side) that does not have an external frame of reference or stopping points along its length can actually prove to be a stressful space to occupy and therefore will inhibit collegiate interactions. If we think of this in terms of a freeway analogy, I know that I become a more nervous driver when there is traffic entering and exiting on both the right and left, and in tunnel situations where there is not an opportunity to stop or exit, and there is no external frame of reference.

Research Labs:
While I do not have scientific based evidence to apply to this category, the presiding architectural theory is that lab planning must be autonomous in granting the end users the ability to determine their own future, and the freedom to make changes as necessary. This is very much in line with the “Labs must be flexible” assumption.

Core facilities:
While research labs need to be flexible, it is important to note that there are certain specialized lab facilities which require complex walls, security and infrastructure.

Retreat/Sanctuary:
Research indicates that when rats are engaged in consummatory behaviors (e.g. eating, grooming and defecating), they enter into memory recall mode. The architecture associated with these activities should support memory recall and therefore be designed as sensory environments which placate the limbic system to facilitate recall and stimulate memory. Private offices or lounge areas might have similar qualities in that they are safe, familiar, and comfortable so as to set the stage for the scientific “Eureka” moment to occur.

Thursday, August 25, 2005

Where are we? Where are we going?

TIMELINE


From the data collection phase, we game up with 6 general assumptions to adopt as user-generated design principles:



Now it is payback time (payback for the investment you have made in enduring the interviews!). During this concept development phase, we will go through another feedback loop to dialogue on how your issues and insights are being addressed, and how the design principles might be refined, fleshed out and implemented.
Write in your comments and suggestions!

Tuesday, August 23, 2005

Power outages

Most of us know that the power went out this morning at Krasnow. My solution was to walk over to the Johnson Center with my laptop (after an hour or so during which I did a press interview over the phone) in the hopes of actually doing something productive with the rest of my day. This worked.

On the way across campus, I noticed, painfully, that massive diesel generators were supplying emergency juice to several of the other science buildings, and it drew me to the conclusion that this is something we absolutely *must* have going forward with the new instrumentation and the Krasnow expansion.

Jim

Monday, August 22, 2005

Cephalization!

As Jim mentioned in the Director’s Blog, I was away last week at Woods Hole for a Neuroscience and Architecture Workshop on “Mapping Memory of Space and Place”. The workshop provided an opportunity for neuroscientists and architects to dialogue on related interests. Our particular break-out group utilized the raw data from the Krasnow Institute interviews as a case study to focus our discussions – to talk in terms of actual, versus hypothetical, programmatic and spatial conditions. As you can imagine, the coincidental timing (of the workshop and Krasnow programming study) proved very opportune as this produced another layer of “stuff” to inform the design process for the Krasnow new construction – stay tuned for upcoming blogs!

In a sidebar conversation at the workshop, one of the participants from Krasnow shared this poignant metaphor with me:
Krasnow’s existing long, linear, symmetrical building can be thought of as the “notochord”, and the additions as the “cephalization” of the institute. This metaphor incorporates a couple different architectural implications we have previously addressed:
- that the new infrastructure will be designed to allow more complex and specialized functions to take place (e.g. an imaging center)
- that the appropriate physical structure and organization is perhaps more branch like, and does not occur along a segmented, double-loaded corridor
- that essential to the function of the organic whole are rich and integrated pathways for communication within and among the lobes and cord (i.e., how would we design a “corpus callosum” for the new addition?)

Having gotten to know Krasnow during the summer months, I can't wait to see how it becomes activated during the school year. Best wishes for a successful fall semester.

Wednesday, August 10, 2005

Assumption 6, part 2: Baby, it’s cold inside

(Steeped in what feels like arctic levels of thermal discomfort, I am having difficulty disassociating from my sensation of being cold in order to write this post on thermal comfort.)

Of the 32 interviews conducted to date, 19 respondents (roughly 60%) reported that they regularly experience uncomfortable temperatures at Krasnow. A work order is generated at least once a week regarding temperature adjustment, and I am told that statistics exist documenting the “too hot” versus “too cold” percentages.

Residents at Krasnow have attempted to regain their personal comfort by taping off the overhead vents, and opening their operable windows. They are asserting individual control of their space; unfortunately, their space is regulated on a zone HVAC control. Meanwhile, the increasing number of computers in the downstairs hallway emit significant heat with little opportunity for ventilation. Such microclimatic variations in temperature within zones create what feels like an uneven distribution of heating and cooling, and increase the overall demand on the HVAC system – which ultimately increases thermal discomfort.

Research conditions also require more precise regulation:
- One cannot get good frozen sections of a block of tissue when the temperature is greater 70 degrees.
- The pH of chemicals change from room to room when temperature fluctuations exist.
- Human subjects must be comfortable (not experiencing stress) to get accurate data, and have a positive experience so they will generate participation and referrals.

There is a need for the ability to individually regulate (for human comfort), and to more precisely monitor (for lab conditions) temperatures. With respect to the new construction, it is virtually impossible to over-spec on the mechanical systems because we cannot know the future demands that new technology and computers will pose. In addition, any trees that are cleared will have some effect on the existing thermal buffer and air quality (filtered light and temperature) that currently is in place.

Tuesday, August 09, 2005

Assumption 6: Amenities promote perseverance

what may seem like a small thing during design - an ergonomic chair, for instance, or a pleasant view from the break room - can make a world of difference to a bleary-eyed researcher after 10-12 hours of work …. People are more creative, productive, and content when they are physically and mentally comfortable.
- “Designing Laboratories for Effective Research” by Darrell Comeaux with Miriam B. Swift and Jim Avant. BioProcess International, February 2005.


Revisiting the initial goals for this study:
- We began with the premise that architecture affects human experience.
- Through the interview process, we are able to define more specifically the experience of the Krasnow cognitive scientist.
- Armed with this knowledge, we can design more informed and enriched environments that resonate with this specific experience. We can make laboratories more livable.

Crucial to making "laboratories more livable" is:
Assumption 6: Amenities promote perseverance.

Amenities ensuring security and personal comfort are essential because they offer stability and sustenance to the independently motivated lifestyle and the taxing, irregular schedule of the Krasnow cognitive scientist. Certainly the work and the end results are motivational rewards, but there has to be some crumbs along the way to get there. We bring to Krasnow our personal habits / rituals of endurance such as: drinking coffee, tai-chi, napping, smoking … and the building / site accommodates them (to some degree). Krasnow in turn provides its own amenities, which are adopted by its users, have become important to them, and aid in perseverance: the woodlands, the Great Room, kitchen, the Lunch Room, art….

To that list we must include the architectural basics: security, acoustics, natural lighting, ventilation and thermal comfort.

Thursday, August 04, 2005

Assumption 5: Krasnow is unique


Assumption 5: Krasnow is unique

We have already noted that Krasnow’s Interdisciplinary composition renders it unique as a body of assembled people. In addition, Krasnow is a unique building. It stands in contrast to the rest of the university (largely because it was originally built as a private institution and therefore wasn’t bound by strict university regulations).

When I go to the Krasnow website (www.krasnow.gmu.edu), I am greeted by a photo of the Great Room. For many (including myself), this is the first impression of Krasnow. I think featuring the Great Room here is the right move. While I am sensitive to the concerns of both sides in the “Great Room debate”, I do believe that the Great Room is Krasnow’s “gem”; it is what makes Krasnow a unique building.

When I go to the websites of other cognitive and neuroscience university labs, this is what I find: lots of illustrations of the brain, images of brain scans, a picture of a man from a historical era, a neuron, some monkeys, some home pages lacking images altogether, and some sites that also feature architecture (e.g. the Salk Institute).

(I realize that you might be thinking, how typical of an architect to suggest that
architecture - and not the science taking place within – be the promotion piece for Krasnow. Hear me out on this one … )

One of you* commented to me that the Great Room is for Krasnow what the “tower” element is to George Mason’s Research 1 building. Research 1’s “tower” is a utilitarian element (housing an observatory) and meets programmatic requirements, but also it acts as a symbol for what is taking place within. Few scientific institutions have a material space to structure the metaphor of what takes place within. Images like the ones found on Krasnow’s or the Salk Institute’s website are very specific, meaningful, sensory and UNIQUE characterizations of place versus a generic image (i.e. “the brain”). It evocatively demarcates “this is a premiere research institution” in a way that historical “names” (e.g. “Home of Nobel Prize Winner John Doe”), although also specific, cannot.

The material qualities of the Great Room become symbolic not only of the science taking place within, but also of the open and interdisciplinary culture of the Krasnow community:
- It represents grand ideas/visions (glass and volume)
- The transparent, airy and spacious box implies “Thinking outside the box”
- It is awe-inspiring. Visitors are often silenced when entering the space because of the acoustics and high ceilings.
- It suggests there is good research taking place here that someone gave funding for such a quality space. It connotes respect.
- It presents an element of surprise not anticipated from the humble, single story entrance. The sloped site allows the floor to drop and achieve a grand two-story space.
- It provides a neutral, community space unencumbered by the hardware of the science for the “meeting of the minds”. It presents an opportunity for coziness (especially if the hearth is used)
- It is a major source of natural light: “enlightening”
- It achieves a sense of nature and beauty as contrasted to the sterile, “hands off”, at times “dungeon-esque”, qualities of many research labs.


Implications of the “Great Room as a unique symbol” with respect to construction and new addition(s):
- We don’t want to put up an institutional building next to a nice architectural building
- It should remain the “center” of the institute, physically and socially/culturally.

I know the Great Room is a controversial topic, and I welcome comments presenting the opposite argument.

* In the interest of maintaining anonymity, I have not mentioned names; however, I also want to give credit where it is due – the majority of the great insights in this posting are the intellectual property of one of your own. Thank you!

Tuesday, August 02, 2005

Spaces are like cells …

I am thinking back to my General Biology class learning about and classifying different cell types, one distinction being their membranes: semi-permeable membranes, permeable membranes, cell walls …, and I like to imagine what their architectural equivalent might be. The laboratory as a building typology would be an organism made up of a variety of very different, highly specialized “cells”.

Though a lot of emphasis in previous posts has been devoted to communal and interstitial spaces, I want to acknowledge that a variety of spaces (cells) do need to be accommodated in a laboratory environment - and especially an interdisciplinary one. I appreciate the following comment because it speaks to the various classification characteristics of space:

“I think it is great to provide areas that facilitate interactions, such as break-out areas, an adequate lunch room, a larger kitchen area, etc., but there needs to be a balance so that (people) can escape into their offices for peace and quiet and then, as one's research requires, easily get to one's lab to do one's work there and interact with others.”

There are a more than a few ways to define spaces, including – based on use, based on barrier, based on location. Thus, in defining the spaces that need to be accommodated in the new addition, we can classify space requirements according to the following:

Use classification of space (i.e., the "cell function")
We need spaces:
To gather
To sit and think, and concentrate deeply at times
To do laboratory research safely


Barrier classification of space (i.e., the "cell membrane")
We need divisions between spaces which:
Are dense –For example, a membrane impermeable to noise, vibration and radiation would be required to enclose the fMRI
Are thick – An anteroom would protect a highly controlled environment and the person entering it.
Are transparent – some barriers need to be glass to permit visual access between experiment and investigator
Are not intimidating – A shy student might be more apt to approach a professor at the “front porch” of an office or lab because it provides a threshold which mediates between private and public space (office and corridor), and is therefore less intimidating than entering a private/secured/bounded space.

Proximity classifications of space (maybe this is the equivalent of a synapse?)
We need some space adjacencies which:
Are near each other – “If my office if not near enough to the lab, I will go there less frequently.”
Are removed from one another – labs that bring in the general public for use in experiments need to be accessed along a circulation route which does not intersect more secured, private labs.

Did I hit all the major classifications? I have intentionally omitted "morphology", or the size and shape of a space, since this could ideally be a result of the above space criteria.
What’s the cell equivalent of your space?

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