Imagine a world where every construction project, no matter how big or small, is a masterpiece of efficiency, accuracy, and beauty.
Our subject matter experts specialize in every aspect of construction, from greenfield developments to brownfield revitalization, from tenant improvements to retrofits, and from historical preservation to cutting-edge building technologies. We're here to help you bring your vision to life, and to make sure that your project is a success from start to finish.
Provides accurate, high-resolution data for as-built documentation: Laser scanning captures high-resolution data for as-built documentation, which can be used for design, planning, and construction coordination. Additionally, it can be used to evaluate potential construction sites.
Allows for efficient and precise measurement of existing conditions: Laser scanning can also be used to quickly and accurately measure existing conditions, saving time and reducing errors.
Enables rapid 3D modeling for design and planning: Laser scanning creates detailed 3D models of existing conditions for design and planning, showing professionals different design options in 3D and how they'll function in the real world.
Facilitates clash detection and coordination between different trades: Laser scanning data can be used to identify potential conflicts between different systems and components, improving coordination and reducing potential errors.
Reality Capture in AEC
Allows for creation of detailed digital models: Reality capture creates detailed and accurate digital models of existing spaces and structures. It can be used for design, planning, construction coordination, and facility management.
Facilitates creation of digital twins for VR walkthroughs: Reality capture creates digital twins of buildings and facilities for virtual reality walkthroughs, real-time monitoring, and control of building systems.
Enables efficient and cost-effective documentation: Reality capture efficiently and cost-effectively documents existing conditions, saving time and reducing errors compared to manual methods. It creates accurate and detailed documentation for design, planning, and construction coordination.
BIM & VDC+O in AEC
Improved collaboration and coordination: BIM and VDC+O enable improved collaboration between different stakeholders in AEC industry.
Increased accuracy and precision: BIM and VDC+O increase accuracy and precision in design, fabrication, and construction.
Enhanced visualization and communication: BIM and VDC+O enhance visualization and communication of design and construction information.
Reduced costs and increased efficiency: BIM and VDC+O reduce costs and increase efficiency by effectively using resources.
Improved safety: BIM and VDC+O improve safety by enabling more accurate construction and real-time data.
Better facility management: BIM and VDC+O enable better facility management by providing accurate and detailed data.
GIS Services in AEC
Site Analysis: GIS can be used to evaluate potential construction sites and identify potential issues and opportunities.
Design and Planning: GIS can be used to create detailed digital models of existing conditions and proposed designs, and to simulate and analyze different options.
Construction Coordination: GIS can be used to create detailed digital models of the construction site, to improve coordination between different trades and disciplines.
Facility Management: GIS can be used to create and maintain digital twins of buildings and other facilities, allowing for real-time monitoring and analysis of building performance.
Environmental Impact Analysis: GIS can be used to analyze the environmental impact of construction projects and to monitor the environmental impact of existing facilities.
Steel Detailing in AEC
Provides detailed drawings and specifications for steel fabrication and erection, ensuring accuracy and consistency in the construction process, reducing fabrication errors and improving fabrication efficiency
Enables efficient coordination between different trades and disciplines, reducing the potential for errors and rework during construction, improving the overall construction timeline and budget
Helps to improve fabrication efficiency and on-site assembly, by providing clear and precise instructions for the steelwork process, reducing fabrication and assembly time
Assists in the clash detection between steel components and other building systems, by providing 3D models of the steelwork, reducing potential delays due to design errors and rework
Improves safety on-site by providing accurate and detailed information on load-bearing capabilities and structural integrity of steel components.
Digital Twins in AEC
Allows for real-time monitoring and analysis of building performance: Digital twins provide real-time monitoring and analysis of building performance, from energy consumption to occupancy patterns, identifying potential issues, and opportunities, and to better inform crutial decisions.
Facilitates remote management of building systems: Digital twins can enable remote control of building systems via IoT sensors to improve performance, reduce costs, and increase efficiency.
Enable predictive maintenance and energy management: Monitoring and analyzing building performance in real-time. Helps to reduce downtime, improve performance, and increase energy efficiency.
Provide virtual walkthroughs and training: Digital twins can be used to provide a virtual replica of a building for virtual walkthroughs and training to improve safety, reduce costs, and increase efficiency.
Industrial Engineering in AEC
Optimizes the design and layout of buildings and industrial facilities: Industrial engineering can be used to optimize the design and layout of buildings and industrial facilities. This can include everything from the arrangement of equipment and machinery to the flow of materials and people. By carefully analyzing and optimizing the layout of a facility, industrial engineers can help to improve efficiency, productivity, and safety.
Improves the efficiency and productivity of operations: Industrial engineering can also be used to improve the efficiency and productivity of operations within buildings and industrial facilities. This can include the use of simulation modeling to optimize the flow of materials and people, as well as the use of ergonomic design principles to reduce the physical demands on workers. By improving the efficiency and productivity of operations, industrial engineers can help to increase output and reduce costs.
Reduces costs and increases safety: Industrial engineering can also be used to reduce costs and increase safety within buildings and industrial facilities. This can include the use of cost-benefit analysis to evaluate different design options, as well as the use of safety engineering to identify and mitigate potential hazards. By reducing costs and increasing safety, industrial engineers can help to improve the overall performance and sustainability of buildings and industrial facilities.
Simulation Modeling in AEC
Allows for the analysis and testing of building systems and designs before construction: Simulation modeling allows for the analysis and testing of building systems and designs before construction. This can include everything from energy consumption and HVAC performance to lighting levels and acoustics. By analyzing and testing building systems and designs before construction, simulation modeling can help to identify potential problems and optimize building performance.
Enables identification of potential problems and optimization of building performance: Simulation modeling can also be used to identify potential problems and optimize building performance. This can include the use of computational fluid dynamics (CFD) to analyze airflow and thermal performance, or the use of building information modeling (BIM) to analyze and optimize building systems. By identifying potential problems and optimizing building performance, simulation modeling can help to reduce costs and increase efficiency.
Facilitates collaboration and communication between different stakeholders: Simulation modeling can also be used to facilitate collaboration and communication between different stakeholders. This can include the use of virtual reality (VR) and augmented reality (AR) to create immersive and interactive models that can be used for communication and collaboration between different stakeholders. By facilitating collaboration and communication between different stakeholders, simulation modeling can help to improve the design and construction process.