W13_r_d_model_phys_075_89
Cogsci_r_d_install_021_234
Rice_r_d_draw_cad_030_260
Schematic diagram of intersection with 6 discrete rooms.
Img_2233_220
A model reveals the interior structure sandwiched between the exterior skins.
Img_0949_208
[Load analysis:structure] for sloped glass.
Dc_r_d_model_phys_005_100
[Lapjoint:joint] of bent [wooden:wood] aperture is prepared for gluing.
A grasshopper definition handled a detailed, rigid [unfolding:fold] of each aluminum segment, taking into account material thickness. This produced the necessary channel widths to be milled into the piece for a given fold angle.
Img_0956_117
Img_1857_87
Model_corner_insert1_208
Load bearing structure.
The [bent:bend] [wooden:wood] element awaits placement between the window and ceiling opening.
Light gels are used to shift [kelvin value:temperature].
Img_2062_234
Dc_r_d_draw_cad_027_237
[Unfolded:fold] surface.
Perforation tests for aluminum honeycomb [folding:fold].
Cogsci_r_d_install_026_234
Models investigate reflection and transparency across a glass plane.
Img_1186_202
Aluminum elements are prepared for folding.
R_d_alu_fold_phys_055_b_103
Img_0130_208
Prefabricated elements are assembled at Art Basel Miami Beach.
The fabricator prepares the dxf file for milling.
Prior to final fabrication, aluminum samples confirm the scalar relationship between material thickness and channel width.
Img_2090_234
Dc_r_d_mockup_023_117
R_d_alu_teeth_phys_034_208
3-way joint developed from two intersecting pieces of aluminum.
W13_r_d_model_phys_020_129
Core sample of [veneer:wood], corian, high density foam, and cavity for aluminum tubing.
Laminated glass plane supports [live load:structure].
Cogsci_r_d_install_055_208
Suction_cup_locations_257
Light model compare [reflective:reflection] glass coating.
Assembly of aluminum skin.
Holes_347
Anodized aluminum pieces are [pre-fit:joint] before [folding:fold].
Tiling options generated in Rhino through Grasshopper plug-in.
[Rib:structure] assembly.
W13_r_d_install_115_201
3-way joint developed from two intersecting pieces of aluminum.
Sightline calculation from Rice Gallery public lobby.
Dc_r_d_draw_cad_001_266
Cogsc_r_d_glass_009_120
Oe15_r_d_fab_004_234
R_d_alu_teeth_phys_024_234
Img_2233_220
Img_1111_122
R_d_alu_fold_phys_042_b_184
Dc_r_d_struct_009_247
Comparative model of  2 and 3 sided glass support. The model explores how edge support schema impact reflection distortion.
[Stress analysis:structure] of glass supported on 3 edges.
Img_0288_208
Dc_r_d_draw_cad_017_275
Flooring pattern for upper and lower surface of prefabricated edge.
W13_r_d_mockup_011_120
R_d_alu_teeth_fold_phys_030_208
3-way joint developed from two intersecting pieces of aluminum.
Img_1933_87
A light study indicates the light temperature in one of the six gallery rooms.
Load-in of prefabricated element at Annely Juda Fine Art.
Rice_r_d_draw_cad_069_285
Anodized aluminum pieces are [pre-fit:joint] before [folding:fold].
Models are viewed under different light conditions.
Full scale model to test viewing distance and [reflected:reflection] sight lines.
Model to assess color temperature.
Tiling options generated in Rhino through Grasshopper plug-in.
Slight angle shifts in the [mirror plane:reflection] significantly impact sight lines.
Aluminum joint geometry is developed using parametric manipulation.
Folding arrangement for a single [folded:fold] panel.
Models investigate light diffusion and reflection across the glass plane at Rice Gallery.
Light model studies the temperature of white light in six discrete rooms.
Eight sheets of CNC milled [plywood:wood] are [bent:bend] in the Mattress Factory's third floor gallery.
Laminated glass plane supports [live-load:structure].
Drawings for [rib:structure] fabrication and assembly.
R_d_lower_cone_jamb_detail_sketches_208
A computer model calculates the relationship between [viewing position:sightlines] and angle of reflection.
Img_1148_131
Img_2181_234
[Anchors:structure] for threaded rod.
0
A series of [unfolding:fold] options are generated to joint locations across aluminum panels.
Sightline and reflection pattern across 50% reflective glass.
A view from the fourth floor of the [wooden:wood] aperture in progress.
Dc_r_d_model_phys_002_100
Img_9920_275
A grasshopper definition was developed to slice the aluminum skin along user-specified planes, [unfolded:fold] each resulting segment, and tested for fit within our limited sheet size.
Light model studies the temperature of white light in six discrete rooms.
[Structural:structure] schematic showing cable and rib clearance options.
Img_1112_118
Aluminum pieces are [pre-fit:joint] before [folding:fold].
Pin [connection:structure] supports the top edge of the laminated glass.
Aluminum panels inspected prior to [folding:fold].
C
Bma_r_d_model_early_012_117
0
Cogsci_r_d_install_027_234
R_d_alu_teeth_phys_041_117
Cogsci_r_d_model_phys_047_94
Cogsci_r_d_model_phys_020_234
File coordinating flooring pattern of aperture opening and prefabricated edge.
Screen_shot_2012-09-11_at_9
Diagram to determine relative  light temperature in each of the six adjacent rooms.
W13_r_d_model_phys_026_169
W13_r_d_struct_001_120
Bma_r_d_glass_001_199
Material_sample_117
Models investigate reflection and transparency across a glass plane.
A parametric study develops the relationship of the aluminum honeycomb panels to the underlying rib structure.
Fluid cooled milling of aluminum plate.
Stress [analysis:structure] of glass supported on 2 edges.
P1130886_117
Rice_r_d_model_phys_130_234
Img_9925_148
Full scale mock up of light levels across [framed:frame] aperture.
W13_r_d_model_phys_113_199
Spacers are placed to insure a regular gap between [folded:fold] aluminum panels.
Tiling pattern for aluminum honeycomb skin.
Assembly of aluminum skin.
A model demonstrates the reflection between upper and lower rooms.
Img_1862_87
Img_0233_179
A model investigates the relationship of the stacked galleries at the Baltimore Museum of Art. The scale of the model allows the viewer to experience the [framed:frame] reflection from each of the three spaces.
An early [structural:structure] model for cable system deployed in OE-15
Fluid cooled milling of aluminum plate.