A legally compliant volume is automatically generated for the site shape, and an error judgment is performed to see if the planned building is within the height limit. You can also use this tool to search for the legal maximum volume.

Developed in cooperation with: Algorithm Design Lab, Seikatsu Sangyo Laboratory

The sky factor is automatically calculated for the site and building shape, and the sky map and calculation results are displayed on the Rhinoceros screen. Results are updated in real time as the building shape changes.

Developed in cooperation with: Algorithm Design Lab, Seikatsu Sangyo Laboratory

Create a time-of-day shade map and an isochronous shade map for the planned building. It is also equipped with a check function that colors the building parts that are out of regulation. It enables quick volume studies with simple operation and visualization of regulations.

Developed in cooperation with: Algorithm Design Lab, Seikatsu Sangyo Laboratory

The area is calculated for each room use from the created building model and displayed as a graph on the screen. This area information graph is updated in real time as the building shape changes. By exporting the information as an area table, it can be used for business feasibility evaluation, etc.

This tool creates 3D models of rebars, steel frames, etc., and displays errors for any interfering parts. It becomes possible to verify the detailing of complex joints in 3D.

Evaluate the line of sight from the assumed viewpoint to the target in the planned building shape. This verification enables a variety of studies, such as reviewing the terraced floors of stadiums, theaters, and halls, and examining the designs of louvers that block the line of sight.

Annual outdoor temperatures such as AMeDAS weather data is visualized on a chart. By coloring the outside temperature range of 18-26 °C, it is possible to analyze the seasons and time periods suitable for natural ventilation.

Tools used: ClimateStudio

Calculate the sunlight hours while considering the shadows cast by sunshade devices and obstacles. It is possible to consider outdoor stadium lawns and tree growth in landscapes.

Tools used: ClimateStudio

Calculate the amount of solar radiation that hits the exterior walls and roofs, allowing for studies of window layouts and sunshade planning that considers solar radiation.

Tools used: ClimateStudio

Analyze the wind flow around a building, allowing for building placement with consideration for wind passage, and window layouts for natural ventilation.

Tools used: STREAM

Analyze the ventilation volume, room temperature, and indoor air velocity when natural ventilation is implemented. It is possible to study natural ventilation that is closer to the actual situation, reflecting the effects of outdoor airflow.

Tools used: Archsim, STREAM

Simulate the flow of rainwater that falls on the ground. By visualizing the rainwater trajectory due to the ground surface slope, it is possible to plan assuming for places where rainwater tends to collect and for hazardous areas that flow into the planned site.

Developed in cooperation with: Algorithm Design Lab

The thermal load of the perimeter is calculated while considering heat insulation and solar shielding effect. Thermal weak points are visualized by coloring the building surface, making it possible to consider energy-saving buildings with low thermal loads.

The thermal comfort PMV is calculated by analyzing the radiant environment considering the heat insulation and the solar shielding effect. It can also be used for airflow windows and push-pull windows, allowing for façade studies to realize a comfortable indoor environment.

Tools used: ClimateStudio

The annual illuminance distribution, brightness distribution, and energy-saving effect of natural lighting and electric lighting are calculated. It is possible to study window layouts and sunshade plans to realize an energy-saving and bright indoor environment.

Tools used: ClimateStudio

Calculate the annual discomfort glare rate at multiple points in the room. It is possible to verify the glare when natural lighting is used, and to consider window layouts and sunshade plans to realize a comfortable light environment. (DGP is used for the glare index.)

Tools used: ClimateStudio

Analyze the distribution of indoor temperature and indoor air velocity in large spaces such as arenas and gymnasiums. By devising an air flow model, analysis time can be reduced, and multiple proposals can be analyzed in a short time, allowing for studies of optimal placement of supply and return registers.

Tools used: STREAM

The optimal solution can be derived quantitatively using different approaches: (1) brute force method - narrow down the solution from a vast number of parametrically generated proposals by setting multiple target values or (2) multi-purpose optimization using a genetic algorithm.

Tools used: (1) Shimz Explorer (Developed in cooperation with: Thornton Tomasetti / CORE Studio, Algorithm Design Lab); (2) Octopus, modeFRONTIER

Once you set the start and finish points, the shortest path of circulation is calculated. By overlapping the paths from each room to the frequently used rooms, it is possible to visualize daily flow and locations of high interactivity in the building.

Visualize the relationship between spaces with different uses, such as department offices and specific function rooms. The size of the space is exhibited by the size of the circle, and the depth of the relationship, such as the frequency of meetings, is displayed by the thickness and color of the line. By switching the display, it is possible to perform the 2D zoning by freely moving the circles while studying the space in the 3D model at the same time.

A tool that supports the "ground plane" and "average ground" calculations, based on which the setback restrictions and shadow restrictions are determined for the volume studies at the initial stage of design. A ground plane development map and a ground plane calculation table are automatically generated from the three-dimensional model reflecting the site gradient and the building perimeter shape. Information is updated in real time when the shape is changed, enabling quick examination.

Calculate the consumption of electricity, gas, water supply, etc. of the HVAC system that uses the most energy in the building, allowing for studies of HVAC configurations that are energy-saving and have low running costs.

The "sense of brightness" felt by the human eye is evaluated using the brightness scale value (NB value). Unlike conventional evaluations based on illuminance, this allows for planning of daylighting and electric lighting based on the brightness perceived by humans.

Tools used: REALAPS, ClimateStudio

A tool to generate terrain mesh in Rhinoceros from survey maps. Based on the generated terrain, it becomes possible to analyze and visualize the 3D terrain by various methods such as soil volume, contour line display, and gradient determination.

The visibility of the ball at any position in the indoor stadium is evaluated based on the contrast with the background brightness. Natural lighting and electric lighting plans can be created while considering the visibility of high side lights.

Tools used: REALAPS

The reflected light from the building’s exterior wall surface is estimated using the direction of solar radiation utilized in environmental simulations. The geometry and rays of reflected light from solar radiation can be projected to the surroundings.

Tools used: Ladybug、Wombat、Sasquatch、TT Toolbox (Colibri)

This tool generates a ground structure (a structure in which all nearby nodes are connected by members) and derives the most efficient shape (topology-optimized form) to the given external forces and support conditions.

Tools used: Karamba 3D

A model with loads, boundary conditions, and other factors, is created to conduct structural analysis. Structural safety is verified by checking deformation, member stresses, etc.

Tools used:Karamba 3D, EEL

This system generates a structural framework based on the building volume and allocates member sections using AI. This makes it possible to streamline structural review in the early stages of design.

Tools used：SYMPREST

Development collaboration：Headwaters Co., Ltd. and Headwaters Consulting Co., Ltd.

The target space is modeled as a network by setting entrances, exits, and branch points as nodes and using the connecting routes and corridors as links. Parameters such as the movement purpose, movement route, walking speed, the positions, number, and sizes of doors, and the width and length of corridors are set. These are used to calculate entry and exit times, crowd size, and other information.

Development collaboration：Vector Research Institute,Inc/Algorithm Design Lab/ Institute of Technology

This system is based on a 3D model of the finished surfaces of the target space, such as the walls, floor and ceiling. It predicts the propagation of sound within the space by tracking the path of the sound emitted from the source on the stage as it is transmitted and repeatedly reflected. The materials and structure of each finished surface can be selected within the tool. This allows Acoustic performance elements to be set, such as how much sound is absorbed when sound bounces off each surface.

Development collaboration： Institute of Technology

Time history response analysis can be performed by linking with the batch processing function of SNAP (a structural analysis software for arbitrary shapes, Kozo System Inc.). The obtained analysis results can also be processed and evaluated in Rhino.

Tools used: SNAP (Batch processing function)