The document summarizes a seminar presentation on applications of Building Information Modeling (BIM) in construction project management. It provides background on BIM, including its definition, development over time, requirements, benefits, applications in design, preconstruction, construction, and facility management. It discusses approaches to BIM implementation and adoption for safety and risk management. It also outlines some challenges to BIM implementation in the construction industry. The presentation concludes that BIM is an innovative concept that can help manage construction project data but that further education and training is needed to increase adoption.
The Building Information Modeling (BIM) is a technology that is rapidly gaining popularity in the world of of Architecture Engineering and Construction. This presentation shows a complete history of the BIM and highlights its applications during Building Life Cycle and finally provides its advantages and limitations.
BIM Adoption, Benefits and Challenges - an IIT Bombay Seminar.pdfLPU / IITB / KM
This document is a seminar report submitted by Boman Ali Mohammadi to the Indian Institute of Technology Bombay on the topic of BIM adoption, benefits, and challenges. The report provides an overview of how BIM is used in various stages of construction projects and different countries. It discusses BIM applications in areas like design, construction, and facility management. It also examines BIM adoption rates and requirements in developed countries like the US, UK, and Singapore, as well as challenges to BIM adoption in developing countries. Additionally, the report outlines benefits of BIM adoption such as improved design quality, information sharing, and cost reductions. It concludes by identifying both benefits and challenges to consider for BIM adoption.
This document discusses Building Information Modeling (BIM) and its applications. It begins with an introduction to BIM, describing it as a process that creates and manages building data with unique identities and relationships. It then provides three case studies of projects that used BIM in different phases of design, construction, and operation. Finally, it discusses the benefits of BIM compared to traditional 3D modeling, noting that BIM stores detailed building data that can be used across the entire lifecycle of a building.
Construction Supply Chain Management (Group Assignment) - BIM 7DYee Len Wan
This document provides an overview of Building Information Modeling (BIM) and its dimensions. It discusses 3D, 4D, 5D, 6D, and 7D BIM. 3D BIM refers to the visual or geometric component of the model. 4D BIM adds time as a dimension by linking the 3D model to a construction schedule. 5D BIM incorporates cost information. The document describes the benefits and challenges of BIM as well as software used for 4D modeling.
A Research Study Done On The Adaptation Of Building Information Modelling In ...Jessica Henderson
The document summarizes a research study that examined 130 publications on the adaptation of Building Information Modeling (BIM) in various fields of construction projects. The publications were categorized into 6 fields: BIM, Design, Construction, Operation and Management, Sustainability and Energy, and Project Lifecycle. The study found the highest number of publications were in the Construction field, followed by Design. There was progressive increase in research across all fields from 2007-2019, with the most research being done on the Construction phase of projects. The results indicate that while BIM research and use is increasing over time in various construction areas, there is still work to be done in some fields like Operation and Management and Sustainability.
This document provides an introduction to Building Information Modeling (BIM) in the construction industry. It discusses how BIM is becoming a standard collaboration process that provides owners and managers with robust information across the entire lifecycle of construction projects. The document outlines the history and development of BIM, from its origins in the 1960s to its current uses. It also identifies some common BIM authoring tools used for architectural, structural, and mechanical/electrical/plumbing modeling.
An Execution of Building Information Modelling for Factories and Warehouse Pr...IRJET Journal
This document discusses building information modeling (BIM) and its use for construction projects in India. It begins with an abstract that provides an overview of BIM, describing it as a digital representation of a building that contains exact geometry and data to aid in design, construction, and maintenance.
The document then discusses challenges in the current construction process and how BIM can help by enabling more collaborative design and construction at lower costs and shorter schedules. It describes using BIM software like Revit to generate 3D models for architecture, structure, and mechanical, electrical, and plumbing (MEP) systems and then using Navisworks to detect clashes between the different models before construction begins.
The objectives are outlined as creating
This document discusses the use of Building Information Modeling (BIM) in construction projects. It covers the various dimensions of BIM from 3D to 7D modeling. 3D BIM allows for visualization of the design and clash detection. 4D BIM adds a time component to show construction scheduling. 5D BIM integrates cost estimating. 6D BIM facilitates energy analysis. 7D BIM supports facility management over the lifetime of the building. Each dimension of BIM provides benefits like improved coordination, cost savings, and sustainability to construction supply chain management. However, implementation also faces challenges such as software limitations and increased costs.
The Building Information Modeling (BIM) is a technology that is rapidly gaining popularity in the world of of Architecture Engineering and Construction. This presentation shows a complete history of the BIM and highlights its applications during Building Life Cycle and finally provides its advantages and limitations.
BIM Adoption, Benefits and Challenges - an IIT Bombay Seminar.pdfLPU / IITB / KM
This document is a seminar report submitted by Boman Ali Mohammadi to the Indian Institute of Technology Bombay on the topic of BIM adoption, benefits, and challenges. The report provides an overview of how BIM is used in various stages of construction projects and different countries. It discusses BIM applications in areas like design, construction, and facility management. It also examines BIM adoption rates and requirements in developed countries like the US, UK, and Singapore, as well as challenges to BIM adoption in developing countries. Additionally, the report outlines benefits of BIM adoption such as improved design quality, information sharing, and cost reductions. It concludes by identifying both benefits and challenges to consider for BIM adoption.
This document discusses Building Information Modeling (BIM) and its applications. It begins with an introduction to BIM, describing it as a process that creates and manages building data with unique identities and relationships. It then provides three case studies of projects that used BIM in different phases of design, construction, and operation. Finally, it discusses the benefits of BIM compared to traditional 3D modeling, noting that BIM stores detailed building data that can be used across the entire lifecycle of a building.
Construction Supply Chain Management (Group Assignment) - BIM 7DYee Len Wan
This document provides an overview of Building Information Modeling (BIM) and its dimensions. It discusses 3D, 4D, 5D, 6D, and 7D BIM. 3D BIM refers to the visual or geometric component of the model. 4D BIM adds time as a dimension by linking the 3D model to a construction schedule. 5D BIM incorporates cost information. The document describes the benefits and challenges of BIM as well as software used for 4D modeling.
A Research Study Done On The Adaptation Of Building Information Modelling In ...Jessica Henderson
The document summarizes a research study that examined 130 publications on the adaptation of Building Information Modeling (BIM) in various fields of construction projects. The publications were categorized into 6 fields: BIM, Design, Construction, Operation and Management, Sustainability and Energy, and Project Lifecycle. The study found the highest number of publications were in the Construction field, followed by Design. There was progressive increase in research across all fields from 2007-2019, with the most research being done on the Construction phase of projects. The results indicate that while BIM research and use is increasing over time in various construction areas, there is still work to be done in some fields like Operation and Management and Sustainability.
This document provides an introduction to Building Information Modeling (BIM) in the construction industry. It discusses how BIM is becoming a standard collaboration process that provides owners and managers with robust information across the entire lifecycle of construction projects. The document outlines the history and development of BIM, from its origins in the 1960s to its current uses. It also identifies some common BIM authoring tools used for architectural, structural, and mechanical/electrical/plumbing modeling.
An Execution of Building Information Modelling for Factories and Warehouse Pr...IRJET Journal
This document discusses building information modeling (BIM) and its use for construction projects in India. It begins with an abstract that provides an overview of BIM, describing it as a digital representation of a building that contains exact geometry and data to aid in design, construction, and maintenance.
The document then discusses challenges in the current construction process and how BIM can help by enabling more collaborative design and construction at lower costs and shorter schedules. It describes using BIM software like Revit to generate 3D models for architecture, structure, and mechanical, electrical, and plumbing (MEP) systems and then using Navisworks to detect clashes between the different models before construction begins.
The objectives are outlined as creating
This document discusses the use of Building Information Modeling (BIM) in construction projects. It covers the various dimensions of BIM from 3D to 7D modeling. 3D BIM allows for visualization of the design and clash detection. 4D BIM adds a time component to show construction scheduling. 5D BIM integrates cost estimating. 6D BIM facilitates energy analysis. 7D BIM supports facility management over the lifetime of the building. Each dimension of BIM provides benefits like improved coordination, cost savings, and sustainability to construction supply chain management. However, implementation also faces challenges such as software limitations and increased costs.
This document provides an overview of Building Information Modeling (BIM). It discusses the history and concept of BIM, including how it has evolved from 2D to 3D modeling. BIM allows different project stakeholders to collaborate by sharing a single database model. The document outlines the various types of BIM models (architectural, structural, MEP etc.) and levels of BIM sophistication. It also discusses how BIM can be used for clash detection, space management, facility management, and building analytics. The status of BIM adoption in India is discussed, along with its applicability to different project delivery methods.
IRJET- Testing Practical Applicability of 5-Dimensional BIM using a Pilot...IRJET Journal
This document discusses testing the practical applicability of 5-dimensional building information modeling (BIM) using a pilot model. It begins by providing background on BIM, including its evolution from 2D CAD drawings and how it integrates quality, time, and cost factors into a single platform. The authors then simulate a pilot model of a G+1 building using 5D BIM in Autodesk AutoCAD, Revit, and Navisworks by developing the 3D model and adding the 4th and 5th dimensions of time and cost. The focus is on factors that influence the practical application of 5D BIM. It finds that integrating information onto a single platform allows for organized, sophisticated, and easy to interpret data
This document discusses Building Information Modeling (BIM) and its benefits throughout the different phases of a building's lifecycle. BIM is a process that involves creating and managing digital representations of physical and functional characteristics of buildings. The document outlines the history of BIM and explains how it supports integrated project teamwork and decision making from design through construction, operations, and management. Key software that supports BIM implementation is also mentioned.
IRJET- Building Information Modeling in AEC Industry with its Implementation ...IRJET Journal
This document summarizes a case study on implementing Building Information Modeling (BIM) on a pilot construction project. BIM was used to design, analyze, and plan the project from the initial CAD file. Floor plans were created for three levels, as well as a site plan, elevations, and 3D renderings. Schedules were generated for doors, windows, rooms, wall materials, and beams. Solar studies and a construction schedule Gantt chart were also produced. The results demonstrate how BIM enhances design, scheduling, and cost estimating over traditional methods.
The document outlines 10 key points about building information modeling (BIM):
1. BIM is a process, not just a technology, that is applied throughout construction from design to facilities management.
2. BIM uses various technology platforms to enable aspects like architectural modeling.
3. BIM has different implementation levels from 2D CAD to full integration of data through web services.
BIM results in significant benefits like reduced costs, improved quality, and better predictability for construction projects.
Contribution Of Building Information Modeling (BIM) To Solve Problems In Arch...IRJET Journal
This document discusses how Building Information Modeling (BIM) can help address problems in the architecture, engineering, and construction (AEC) industry. It begins by defining BIM and explaining its benefits, such as improved 3D visualization, integrated scheduling and cost estimating, change management, and sustainability analysis.
The document then outlines several ways BIM can help solve problems for the AEC industry: it allows for better communication and collaboration between project stakeholders; helps detect and resolve conflicts in design; facilitates faster project delivery; reduces waste; and allows for more accurate cost control and return on investment calculations. Case studies are presented showing how BIM helped reduce costs on specific projects. Finally, barriers to adoption like lack of expertise and inter
IRJET- Digital Engineering & Project Management for AEC Industry using BIMIRJET Journal
This document discusses how building information modeling (BIM) can transform project management in the architecture, engineering, and construction (AEC) industry. BIM is a collaborative process that uses digital technologies to facilitate integrated project delivery. It allows project stakeholders to visualize a project virtually and perform clash detection, constructability reviews, data analytics, and time/cost estimation. The document argues that BIM helps integrate the entire project lifecycle, from design to construction to operations. As BIM use increases, the roles and dynamics of project management in the AEC industry will change, with project managers taking on the new role of BIM coordinator to oversee the collaborative BIM process.
The Role of BIM in Modern Construction ProjectsTawwabKhan4
In the rapidly evolving landscape of modern construction, the integration of technology has become paramount for success. One such technological advancement that has revolutionised the industry is Building Information Modelling, commonly known as BIM. With its digital representation of the physical and functional characteristics of buildings, BIM offers a transformative approach to construction projects.
In this article, we take a look at the significance of BIM, exploring its importance and the multiple levels or stages it encompasses. We will also uncover the role of precision engineering in constructing stronger and more sophisticated buildings.
Understanding the Power of BIM: A Digital Revolution in Construction
At its core, Building Information Modelling (BIM) is a digital representation of a building’s physical and functional attributes. It encompasses a wide range of information, including architectural, structural, mechanical, and electrical details, all stored in a centralised database. This comprehensive model serves as a shared knowledge resource for all stakeholders involved in a construction project.
BIM is a game-changer in the construction industry due to its ability to enhance collaboration, improve communication, and streamline workflows.
IRJET - Digital Engineering & Project Management for AEC Industry using BIMIRJET Journal
This document discusses how building information modeling (BIM) can transform project management in the architecture, engineering, and construction (AEC) industry. It defines BIM and integrated project delivery systems, and describes how BIM supports key project management functions like clash detection, constructability reviews, scheduling, cost estimation, and asset management. BIM aligns with the knowledge areas in the Project Management Body of Knowledge and provides benefits like improved collaboration, productivity, quality, and cost savings. However, challenges to implementing BIM include overcoming personal beliefs, technical issues, skills and training, legal procedures, and costs. The role of the project management office is important to effectively adapt to and support BIM implementation.
How building information modeling (BIM) functions in construction projectsCAD Outsourcing
How building information modeling (BIM) functions in construction projects
https://www.cadoutsourcing.net/cad-outsourcing-services/building-information-modeling-bim.html
BIM, Adoption, Implementation and FutureIJERDJOURNAL
This document discusses the adoption and implementation of building information modeling (BIM) globally. It finds that while BIM provides benefits like improved design coordination and constructability, its adoption is still limited, facing obstacles like weak economies, lack of government support, and resistance to change in the construction industry. For countries to successfully adopt BIM, they need to establish strong legal and technical foundations to support its use, along with the development of relevant standards. While adoption will vary between countries, BIM is increasingly important for the future of the construction industry.
This document discusses Building Information Modeling (BIM) and its benefits for the construction industry. BIM models allow project team partners to work together on a single platform using the same facts, data, and drawings. BIM models add additional dimensions like time (4D), cost (5D), and lifecycle elements (6D) to help with project planning, cost estimation, and scheduling. The "I" in BIM refers to the important information stored in BIM models that can be accessed from anywhere, improving accuracy, safety, collaboration, and insights for future projects. BIM is useful for construction planning and infrastructure projects by facilitating complex planning, visualization, and cost/schedule management. As BIM advances, its
The document discusses using laser scanning point clouds to create Building Information Models (BIM). It describes how point clouds collected via laser scanning can be processed and used to efficiently generate 3D digital models of objects. The models integrate spatial data with semantic information like material properties. BIM allows all project stakeholders to access shared information across design, construction and management. Laser scanning provides accurate spatial data to complete the BIM workflow and plays an important role in construction projects. The document presents a case study of a church scanning project and processing the point clouds in Revit software to generate object-oriented BIM models for documentation and future applications.
BIM means a multitude of things to a myriad of stakeholders, companies, and geographical locations, based on multiple factors.
However, from a holistic viewpoint, the meaning we append to and the expectations we have of BIM are not as important as the connection that BIM brings when properly deployed with cloud-based solutions; thus, filling so many inefficiency gaps.
This is the era of Connected Construction and there has been an increased need for remote collaboration across every industry.
For whatever reason you implement Digital Transformation in your practice, you will most likely reap more benefits in the long run, if you can collaborate and connect with the other stakeholders across your projects.
Building Information Modelling in Sustainability AnalysisIRJET Journal
This document discusses using Building Information Modeling (BIM) software like Autodesk Revit to perform sustainability analyses of construction projects. It describes how BIM allows for rendering, energy analysis, sun path analysis, shadow analysis, heating/cooling analysis, and material take-offs/scheduling. BIM creates a digital model of the building that can be used to understand how design changes impact energy performance before construction. Analyses like sun path, shadow, and heating/cooling help optimize the building's design for passive sustainability strategies. Overall, BIM is presented as an effective tool for sustainable design that can reduce costs and improve building performance compared to traditional methods.
Introduction to the Building Information Modeling: Definitions, History, Timeline, Stakeholders, BIM Dimensions, Level of Development, Formats of BIM, and Limitations of Building Information Modeling.
Lezione del 17 dicembre 2015 dell'Ing. Konstantinos Gkoumas al Corso di Costruzioni Metalliche del Prof. Ing. Franco Bontempi, Facolta' di Ingegneria Civile e Industriale, Universita' degli Studi di Roma La Sapienza.
The document provides an introduction to Building Information Modeling (BIM). It discusses how BIM is a process that leverages integrated data management across the entire life cycle of construction projects. BIM involves creating an intelligent digital representation of the building that contains information about the building's components. Some benefits of BIM include improved design coordination, constructability analysis, cost estimating, and facility operations. Challenges to adopting BIM include the learning curve for new software and costs of BIM tools.
This document summarizes the design of a lifting table for power lithium-ion battery packs up to 1200mmx700mm and 1000kg. It includes the objectives of studying the device layout, structure analysis, design scheme, power calculations, and static and motion analyses. The lifting table can lift the battery packs to heights of 600mm, 650mm, and 700mm at speeds of 0.1-0.5m/s. The document reviews similar designs from literature and outlines the selection, calculation, design, and AutoCAD/Catia modeling of major lifting table parts like the lifting platform, hydraulics, and sensors. Force, stress, and motion analyses were performed on the scissor lift structure and hydraulic system
This document summarizes research on tri-layered magnetoelectric composites containing Metglas and various piezoelectric crystals. Key findings include:
1) Composites of Metglas/lithium niobate (LNO) and Metglas/gallium phosphate (GPO) exhibited direct magnetoelectric voltage coefficients of up to 0.95 V/(cm·Oe) and 0.24 V/(cm·Oe), respectively.
2) Under electromechanical resonance, the Metglas/LNO composite showed a very large coefficient of 250 V/(cm·Oe), while the Metglas/GPO composite showed a maximum of 23 V/(
This document provides an overview of Building Information Modeling (BIM). It discusses the history and concept of BIM, including how it has evolved from 2D to 3D modeling. BIM allows different project stakeholders to collaborate by sharing a single database model. The document outlines the various types of BIM models (architectural, structural, MEP etc.) and levels of BIM sophistication. It also discusses how BIM can be used for clash detection, space management, facility management, and building analytics. The status of BIM adoption in India is discussed, along with its applicability to different project delivery methods.
IRJET- Testing Practical Applicability of 5-Dimensional BIM using a Pilot...IRJET Journal
This document discusses testing the practical applicability of 5-dimensional building information modeling (BIM) using a pilot model. It begins by providing background on BIM, including its evolution from 2D CAD drawings and how it integrates quality, time, and cost factors into a single platform. The authors then simulate a pilot model of a G+1 building using 5D BIM in Autodesk AutoCAD, Revit, and Navisworks by developing the 3D model and adding the 4th and 5th dimensions of time and cost. The focus is on factors that influence the practical application of 5D BIM. It finds that integrating information onto a single platform allows for organized, sophisticated, and easy to interpret data
This document discusses Building Information Modeling (BIM) and its benefits throughout the different phases of a building's lifecycle. BIM is a process that involves creating and managing digital representations of physical and functional characteristics of buildings. The document outlines the history of BIM and explains how it supports integrated project teamwork and decision making from design through construction, operations, and management. Key software that supports BIM implementation is also mentioned.
IRJET- Building Information Modeling in AEC Industry with its Implementation ...IRJET Journal
This document summarizes a case study on implementing Building Information Modeling (BIM) on a pilot construction project. BIM was used to design, analyze, and plan the project from the initial CAD file. Floor plans were created for three levels, as well as a site plan, elevations, and 3D renderings. Schedules were generated for doors, windows, rooms, wall materials, and beams. Solar studies and a construction schedule Gantt chart were also produced. The results demonstrate how BIM enhances design, scheduling, and cost estimating over traditional methods.
The document outlines 10 key points about building information modeling (BIM):
1. BIM is a process, not just a technology, that is applied throughout construction from design to facilities management.
2. BIM uses various technology platforms to enable aspects like architectural modeling.
3. BIM has different implementation levels from 2D CAD to full integration of data through web services.
BIM results in significant benefits like reduced costs, improved quality, and better predictability for construction projects.
Contribution Of Building Information Modeling (BIM) To Solve Problems In Arch...IRJET Journal
This document discusses how Building Information Modeling (BIM) can help address problems in the architecture, engineering, and construction (AEC) industry. It begins by defining BIM and explaining its benefits, such as improved 3D visualization, integrated scheduling and cost estimating, change management, and sustainability analysis.
The document then outlines several ways BIM can help solve problems for the AEC industry: it allows for better communication and collaboration between project stakeholders; helps detect and resolve conflicts in design; facilitates faster project delivery; reduces waste; and allows for more accurate cost control and return on investment calculations. Case studies are presented showing how BIM helped reduce costs on specific projects. Finally, barriers to adoption like lack of expertise and inter
IRJET- Digital Engineering & Project Management for AEC Industry using BIMIRJET Journal
This document discusses how building information modeling (BIM) can transform project management in the architecture, engineering, and construction (AEC) industry. BIM is a collaborative process that uses digital technologies to facilitate integrated project delivery. It allows project stakeholders to visualize a project virtually and perform clash detection, constructability reviews, data analytics, and time/cost estimation. The document argues that BIM helps integrate the entire project lifecycle, from design to construction to operations. As BIM use increases, the roles and dynamics of project management in the AEC industry will change, with project managers taking on the new role of BIM coordinator to oversee the collaborative BIM process.
The Role of BIM in Modern Construction ProjectsTawwabKhan4
In the rapidly evolving landscape of modern construction, the integration of technology has become paramount for success. One such technological advancement that has revolutionised the industry is Building Information Modelling, commonly known as BIM. With its digital representation of the physical and functional characteristics of buildings, BIM offers a transformative approach to construction projects.
In this article, we take a look at the significance of BIM, exploring its importance and the multiple levels or stages it encompasses. We will also uncover the role of precision engineering in constructing stronger and more sophisticated buildings.
Understanding the Power of BIM: A Digital Revolution in Construction
At its core, Building Information Modelling (BIM) is a digital representation of a building’s physical and functional attributes. It encompasses a wide range of information, including architectural, structural, mechanical, and electrical details, all stored in a centralised database. This comprehensive model serves as a shared knowledge resource for all stakeholders involved in a construction project.
BIM is a game-changer in the construction industry due to its ability to enhance collaboration, improve communication, and streamline workflows.
IRJET - Digital Engineering & Project Management for AEC Industry using BIMIRJET Journal
This document discusses how building information modeling (BIM) can transform project management in the architecture, engineering, and construction (AEC) industry. It defines BIM and integrated project delivery systems, and describes how BIM supports key project management functions like clash detection, constructability reviews, scheduling, cost estimation, and asset management. BIM aligns with the knowledge areas in the Project Management Body of Knowledge and provides benefits like improved collaboration, productivity, quality, and cost savings. However, challenges to implementing BIM include overcoming personal beliefs, technical issues, skills and training, legal procedures, and costs. The role of the project management office is important to effectively adapt to and support BIM implementation.
How building information modeling (BIM) functions in construction projectsCAD Outsourcing
How building information modeling (BIM) functions in construction projects
https://www.cadoutsourcing.net/cad-outsourcing-services/building-information-modeling-bim.html
BIM, Adoption, Implementation and FutureIJERDJOURNAL
This document discusses the adoption and implementation of building information modeling (BIM) globally. It finds that while BIM provides benefits like improved design coordination and constructability, its adoption is still limited, facing obstacles like weak economies, lack of government support, and resistance to change in the construction industry. For countries to successfully adopt BIM, they need to establish strong legal and technical foundations to support its use, along with the development of relevant standards. While adoption will vary between countries, BIM is increasingly important for the future of the construction industry.
This document discusses Building Information Modeling (BIM) and its benefits for the construction industry. BIM models allow project team partners to work together on a single platform using the same facts, data, and drawings. BIM models add additional dimensions like time (4D), cost (5D), and lifecycle elements (6D) to help with project planning, cost estimation, and scheduling. The "I" in BIM refers to the important information stored in BIM models that can be accessed from anywhere, improving accuracy, safety, collaboration, and insights for future projects. BIM is useful for construction planning and infrastructure projects by facilitating complex planning, visualization, and cost/schedule management. As BIM advances, its
The document discusses using laser scanning point clouds to create Building Information Models (BIM). It describes how point clouds collected via laser scanning can be processed and used to efficiently generate 3D digital models of objects. The models integrate spatial data with semantic information like material properties. BIM allows all project stakeholders to access shared information across design, construction and management. Laser scanning provides accurate spatial data to complete the BIM workflow and plays an important role in construction projects. The document presents a case study of a church scanning project and processing the point clouds in Revit software to generate object-oriented BIM models for documentation and future applications.
BIM means a multitude of things to a myriad of stakeholders, companies, and geographical locations, based on multiple factors.
However, from a holistic viewpoint, the meaning we append to and the expectations we have of BIM are not as important as the connection that BIM brings when properly deployed with cloud-based solutions; thus, filling so many inefficiency gaps.
This is the era of Connected Construction and there has been an increased need for remote collaboration across every industry.
For whatever reason you implement Digital Transformation in your practice, you will most likely reap more benefits in the long run, if you can collaborate and connect with the other stakeholders across your projects.
Building Information Modelling in Sustainability AnalysisIRJET Journal
This document discusses using Building Information Modeling (BIM) software like Autodesk Revit to perform sustainability analyses of construction projects. It describes how BIM allows for rendering, energy analysis, sun path analysis, shadow analysis, heating/cooling analysis, and material take-offs/scheduling. BIM creates a digital model of the building that can be used to understand how design changes impact energy performance before construction. Analyses like sun path, shadow, and heating/cooling help optimize the building's design for passive sustainability strategies. Overall, BIM is presented as an effective tool for sustainable design that can reduce costs and improve building performance compared to traditional methods.
Introduction to the Building Information Modeling: Definitions, History, Timeline, Stakeholders, BIM Dimensions, Level of Development, Formats of BIM, and Limitations of Building Information Modeling.
Lezione del 17 dicembre 2015 dell'Ing. Konstantinos Gkoumas al Corso di Costruzioni Metalliche del Prof. Ing. Franco Bontempi, Facolta' di Ingegneria Civile e Industriale, Universita' degli Studi di Roma La Sapienza.
The document provides an introduction to Building Information Modeling (BIM). It discusses how BIM is a process that leverages integrated data management across the entire life cycle of construction projects. BIM involves creating an intelligent digital representation of the building that contains information about the building's components. Some benefits of BIM include improved design coordination, constructability analysis, cost estimating, and facility operations. Challenges to adopting BIM include the learning curve for new software and costs of BIM tools.
This document summarizes the design of a lifting table for power lithium-ion battery packs up to 1200mmx700mm and 1000kg. It includes the objectives of studying the device layout, structure analysis, design scheme, power calculations, and static and motion analyses. The lifting table can lift the battery packs to heights of 600mm, 650mm, and 700mm at speeds of 0.1-0.5m/s. The document reviews similar designs from literature and outlines the selection, calculation, design, and AutoCAD/Catia modeling of major lifting table parts like the lifting platform, hydraulics, and sensors. Force, stress, and motion analyses were performed on the scissor lift structure and hydraulic system
This document summarizes research on tri-layered magnetoelectric composites containing Metglas and various piezoelectric crystals. Key findings include:
1) Composites of Metglas/lithium niobate (LNO) and Metglas/gallium phosphate (GPO) exhibited direct magnetoelectric voltage coefficients of up to 0.95 V/(cm·Oe) and 0.24 V/(cm·Oe), respectively.
2) Under electromechanical resonance, the Metglas/LNO composite showed a very large coefficient of 250 V/(cm·Oe), while the Metglas/GPO composite showed a maximum of 23 V/(
This paper examines how the right to be forgotten is balanced with freedom of expression for spent criminal convictions in the EU. It discusses how people with criminal records that are now reformed still have their records available online, which can negatively impact employment, insurance, education and social opportunities. The paper aims to determine if the current balancing of these two rights is properly done. It will analyze the existing balancing practices derived from the Google Spain ruling, different approaches taken, and findings on the current "grey zone" of balancing and tensions between the GDPR and ECJ practices. The conclusion is that balancing of these two rights is still in its early stages and more tangible norms are needed to advance it to the next generation.
Sistem pernafasan terdiri dari bagian konduksi dan respirasi. Bagian konduksi meliputi hidung, laring, trakea, dan bronkus yang berfungsi menghantarkan dan menyaring udara, sedangkan bagian respirasi terdiri dari bronkiolus, alveoli, dan kapiler darah dimana terjadi pertukaran gas.
Rangkaian pelajaran tahunan matematik tingkatan 2 tahun 2016 meliputi bidang-bidang pembelajaran seperti nombor berarah, kuasa, algebra, dan ungkapan algebra. Setiap minggu akan diajar hasil pembelajaran dan taksiran yang berkaitan."
This presentation includes basic of PCOS their pathology and treatment and also Ayurveda correlation of PCOS and Ayurvedic line of treatment mentioned in classics.
Executive Directors Chat Leveraging AI for Diversity, Equity, and InclusionTechSoup
Let’s explore the intersection of technology and equity in the final session of our DEI series. Discover how AI tools, like ChatGPT, can be used to support and enhance your nonprofit's DEI initiatives. Participants will gain insights into practical AI applications and get tips for leveraging technology to advance their DEI goals.
Exploiting Artificial Intelligence for Empowering Researchers and Faculty, In...Dr. Vinod Kumar Kanvaria
Exploiting Artificial Intelligence for Empowering Researchers and Faculty,
International FDP on Fundamentals of Research in Social Sciences
at Integral University, Lucknow, 06.06.2024
By Dr. Vinod Kumar Kanvaria
Physiology and chemistry of skin and pigmentation, hairs, scalp, lips and nail, Cleansing cream, Lotions, Face powders, Face packs, Lipsticks, Bath products, soaps and baby product,
Preparation and standardization of the following : Tonic, Bleaches, Dentifrices and Mouth washes & Tooth Pastes, Cosmetics for Nails.
Macroeconomics- Movie Location
This will be used as part of your Personal Professional Portfolio once graded.
Objective:
Prepare a presentation or a paper using research, basic comparative analysis, data organization and application of economic information. You will make an informed assessment of an economic climate outside of the United States to accomplish an entertainment industry objective.
How to Build a Module in Odoo 17 Using the Scaffold MethodCeline George
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1. SEMINAR PRESENTATION
Presented by
Supervisor
Preston Emmanuel Vah
Roll No: 2154016
Prof. (Dr.) Purnachandra Saha
School of Civil Engineering, KIIT
Topic
Applications of Building Information Modeling (BIM)
in Construction Project Management
June-2022
M. Tech, Construction Engineering and Management 1
KALINGA INSTITUTE OF INDUSTRIAL TECHNOLOGY
Deemed to be University U/S 3 of the UGC Act, 1956
SCHOOL OF CIVIL ENGINEERING
Presented in partial fulfillment of the requirements
for the degree of
MASTER OF TECHNOLGY IN CIVIL ENGINEERING
2. 2
Seminar Presentation 2
CONTENT
Introduction
Building Information Modeling (BIM)
What is BIM?
Development of BIM
Requirements of BIM
Benefits of BIM
Approaches to BIM implementation
BIM applications
BIM adoption for Safety & Risk
BIM Challenges
Conclusion
References
June-2022
3. 3
Seminar Presentation 3
1.0 INTRODUCTION
June-2022
Construction project management is complex because of its traditional, evolving, and
dynamic nature. The relations between different construction project stakeholders,
from feasibility to decommissioning/demolition are fragmented and constantly
changing, and for this reason, the issue of finding the exact application capability of
BIM processes and tools/software to fully address all aspects and challenges of
construction project management ( i.e. planning, cost, quality, safety, etc.) has been
slow to achieve as compared to other aspects of the AEC Industry [1].
Building information modeling (BIM), is described as a product, process, and system
by the National Building Information Modeling Standard (NBIMS) (National
Institute of Building Sciences 2019), is becoming increasingly substantial and
widespread in today’s fast-moving competitive AEC industry [2]. This review is
intended to explore the salient applications of BIM in the AEC industry, focusing
primarily on construction project management.
4. 4
Seminar Presentation 4
1.0 INTRODUCTION
June-2022
BIM is an innovative technology and process that has
transformed the way buildings are designed, analyzed,
visualized, constructed, and managed.
A tremendous amount of information is currently
available about BIM, such as theories on where BIM can
go, the wide range of tools available, and how BIM
appears to be the answer to all of the problems facing the
construction industry.
5. 5
Seminar Presentation June-2022 5
2.0 Building Information Modeling (BIM)
2.1 What is BIM?
Building Information Modeling (BIM) is an integrated and
collaborative technology-enabled process that uses various tools for
the generation, analysis, visualization, and utilization of information
related to the digital representation of the geometry and non-geometry
aspects of a building to enable project stakeholders to work seamlessly
throughout the building project’s lifecycle [3].
The Building data/information is embedded in a parametric and
intelligent 3D model which represents the digital/virtual model of the
building/infrastructure before and after it is constructed. This enables
stakeholders to make informed decisions relating to planning, design,
pre-construction, construction, operation, and demolition activities of
the asset/building [4].
6. 6
Seminar Presentation June-2022 6
2.0 Building Information Modeling (BIM)
2.2 Development of BIM
The 1970s: A Tool to Revolutionize Architecture
Charles M. Eastman (May 5, 1940 – November 9, 2020) was a professor and a
pioneer in the areas of design cognition, building information modeling (BIM),
solid and parametric modeling, engineering databases, product models, and
interoperability. While no single person can be credited for the invention of
BIM, he is widely considered the father of BIM therefore, he has been cited in
most research literature relating to BIM.
Eastman [5] outlined the concept of BIM as we know it today when he
introduced Building Description Systems (BDS) in the 1970s. Among his many
publications in the 70s there are two articles that discuss the early concepts of
BIM, both as a process and technology [6,7].
Charles M. Eastman
7. 7
Seminar Presentation June-2022 7
2.0 Building Information Modeling (BIM)
2.2 Development of BIM
In their paper published in 1992, G.A. van Nederveen and F.P. Tolman [8]
introduced the term BIM, as we know it today.
The 2000s and present: An Era of Digitally Native Design
However, it was not until 2003 that commercial BIM tools became
abundant and the industry slowly started adopting BIM in its processes
(Autodesk 2003; Bentley and Workman 2003; Cyon Research
Corporation 2003; Laiserin 2003).
As many companies across the globe struggled with technical and
organizational issues without knowing where they were going in the
mid-to-late 2000s. BIM adoption during this period is referred to as the
early stage or as the first wave of BIM adoption at the industry and
organization levels
G.A Van Nederveen
Assistant Professor Integrated
Design and Information Systems,
Delft University of Technology
8. 8
Seminar Presentation June-2022 8
2.0 Building Information Modeling (BIM)
2.2 Development of BIM
Timeline of BIM Development
Source: https://cdn-images-
1.medium.com/max/800/0*zXRvugMUOygzpt6v.
Timeline of BIM Development
Source: https://www.itwocostx.com/wp-
content/uploads/2017/02/BIM-evolution-2.png
9. 9
Seminar Presentation June-2022 9
2.0 Building Information Modeling (BIM)
2.2 Development of BIM
Chronology of BIM and tools
Source: Migilinskas, D., Galdikas, L., & Šarka, V. (2013). Analysis
of building information modelling using IFC data exchange.
Mokslas–Lietuvos ateitis/Science–Future of Lithuania, 5(5), 492-497.
Dimensions of BIM
Source: https://biblus.accasoftware.com/en/wp-
content/uploads/sites/2/2022/01/Dimensions-of-BIM.jpg
10. 10
Seminar Presentation June-2022
1
0
2.0 Building Information Modeling (BIM)
2.2 Development of BIM
BIM Data Standards
Source: National Building Information Modeling Standard
BIM Dimensions & LOD across the globe 1990 – 2020
Source: www.tejjy.com
11. 11
Seminar Presentation June-2022 11
2.0 Building Information Modeling (BIM)
2.3 Requirements of BIM in Construction Industry
Implementing BIM efficiently requires significant changes in the way in which
the construction industry operates and its processes. BIM consists of four main
components: process, people, policy, and technology [9].
Source: bimdesignhub.com
12. 12
Seminar Presentation June-2022 12
2.0 Building Information Modeling (BIM)
2.4 Benefits of BIM
By using Building Information Modeling (BIM) organizations can better manage
their work. The various phases of construction in which BIM is used, include
programming, design, preconstruction, construction, and postconstruction
(operations and maintenance) [10].
Source: https://www.bimspot.io/wp-ontent/uploads/2021/02/bim_advantages-1316x740-c-
center-960x0-c-default.png
13. 13
Seminar Presentation June-2022 13
2.0 Building Information Modeling (BIM)
2.5 Approaches to the implementation of BIM
Determine your organization's BIM maturity level
Determine which technologies are best for your role and business
Define the organization’s BIM vision
Create a business case for the adoption of new technologies
Create a business model based on realistic targets
Recognize and address challenges
Develop a learning environment supportive of BIM implementation
Monitor implementation and refinement [11]
14. 14
Seminar Presentation June-2022 14
2.0 Building Information Modeling (BIM)
Design and documentation:
Creation of 3D architectural and structural
models
Preparation of 2D construction drawings
and specifications
5D BIM-driven quantity take-off and
budgeting
Construction planning and scheduling by
using 4D BIM [12]
Preconstruction:
Human resource management
virtual reconstruction/4D simulation
Quality assurance, and safety [13]
Constructability reviews and clash detection
Visualization of the construction process [14]
Testing different construction method statements
and procedures for constructability compliance
[15].
2.6 BIM applications in construction project management
15. 15
Seminar Presentation June-2022 15
2.0 Building Information Modeling (BIM)
2.6 BIM applications in construction project management
Construction phase:
Shop drawing and fabrication,
Construction defect detection,
Sustainable construction planning
Efficient cost management and project reports
Visual risk analysis and logistic models,
Digital models of building elements
Increase employer satisfaction and confidence
Improve communication and collaboration [16].
Monitoring construction progress:
By using time-lapse, close-range, and
aerial images of construction sites, as well
as laser scanners and 3D point clouds. [17].
Identification, analysis, and visualization of
deviations of as-built vs as-planned
information [18].
16. 16
Seminar Presentation June-2022 16
2.0 Building Information Modeling (BIM)
2.7 BIM adoption for Safety & Risk in construction
BIM can serve in many areas of the entire life cycle of a facility. For safety
management, although BIM has shown a great potential to improve
construction safety performance, it is still a new area [19].
Incorporation of safety and risk management during the project planning and
design stages [20].
Safety on construction sites can be improved greatly by using 4D BIM
BIM applications in construction projects can reduce waste and safety
problems in construction, leading to the completion of quality projects [21].
17. 17
Seminar Presentation June-2022 17
2.0 Building Information Modeling (BIM)
2.8 BIM Challenges
Construction has traditionally been slow
to adopt new technologies due to a
number of factors, including a lack of
awareness and training; the fragmentation
of the AEC sector; the industry's
reluctance to change its existing practices;
a reluctance to embrace new technologies
and concepts; confusion about the role,
responsibilities, and benefits of these new
technologies [22].
No Factors Challenges
1 People Comfort with conventional
processes used add to refusal
of construction players to
change.
Lack of knowledge of BIM.
Lack of skill on BIM.
2 Process & Policy No BIM guideline and specific
model could assist
construction players to
implement BIM.
3 Technology BIM tools are expensive.
New hardware is expensive.
BIM training is expensive.
18. 18
Seminar Presentation June-2022 18
Conclusion
BIM is an innovative concept, combining process and technology to manage
construction projects by simultaneously generating, storing, and visualizing
construction data. Due to its benefits, numerous research studies have been
conducted regarding the applications of BIM in the AEC industry. In this paper,
the various aspects of BIM in the AEC industry have been presented, with specific
focus on the salient applications of BIM in construction project management.
For BIM to be fully adopted and implemented in the entire processes of
construction project management, there is a need to improve awareness of the
BIM concept through education and training, both in the AEC industry and
academia, including more information and provision of expertise about BIM that
can enhance the levels of adoption and application. This will result in the
development of a holistic strategy to increase the adoption of BIM in the
industry.
19. 19
Seminar Presentation June-2022 19
References
[1] Selçuk Çıdık, M., Boyd, D., & Thurairajah, N. (2017). Innovative
capability of building information modeling in construction design. Journal
of construction engineering and management, 143(8), 04017047.
[2] Seyis, S. (2019). Pros and cons of using building information modeling
in the AEC industry. Journal of Construction Engineering and Management,
145(8), 04019046.
[3] Shaqour, E. N. (2022). The role of implementing BIM applications in
enhancing project management knowledge areas in Egypt. Ain Shams
Engineering Journal, 13(1), 101509.
[4] Son, H., Lee, S., & Kim, C. (2015). What drives the adoption of building
information modeling in design organizations? An empirical investigation
of the antecedents affecting architects' behavioral intentions. Automation in
construction, 49, 92-99.
[5] Eastman, C. (1974). An Outline of the Building Description System.
Research Report No. 50.
[6] Eastman, C. (1975). The use of computers instead of drawings in
building design. AIA journal, 63(3), 46-50.
[7] Eastman, C., & Henrion, M. (1977). GLIDE: a language for design
information systems. ACM SIGGRAPH Computer Graphics, 11(2), 24-33.
[8] van Nederveen, G. A., & Tolman, F. P. (1992). Modelling multiple
views on buildings. Automation in Construction, 1(3), 215-224.
[9] Aitbayeva, D., & Hossain, M. A. (2020). Building information model
(BIM) implementation in perspective of Kazakhstan: opportunities and
barriers. J. Eng. Res. Rep, 14, 13-24.
[10] Moazzami, M., Maalek, R., Senanayake, S., & Ruwanpura, J. (2020,
November). Adoption and Implementation of BIM in Canadian Construction
Projects: Benefits, Challenges, and Limitations. In Construction Research
Congress 2020: Computer Applications (pp. 1-10). Reston, VA: American
Society of Civil Engineers.
[11] Dowd, T., & Marsh, D. (2020). The future of BIM: digital transformation
in the UK construction and infrastructure sector. RICS insight paper.
[12] Singh, V., Gu, N., & Wang, X. (2011). A theoretical framework of a
BIM-based multi-disciplinary collaboration platform. Automation in
construction, 20(2), 134-144.
[13] Zhang, S., Teizer, J., Lee, J. K., Eastman, C. M., & Venugopal, M.
(2013). Building information modeling (BIM) and safety: Automatic safety
checking of construction models and schedules. Automation in construction,
29, 183-195.
[14] Zhang, J., Yu, F., Li, D., and Hu, Z. (2014). “Development and
implementation of an industry foundation classes-based graphic information
model for virtual construction.” Comput. Aided Civ. Infrastruct. Eng., 29(1),
60–74.
[15] Wang, J.,Wang, X., Shou,W., Chong, H. Y., and Guo, J. (2016).
“Building information modeling-based integration of MEP layout designs and
constructability.” Autom. Constr., 61, 134–146.
[16] Seyis, S. (2019). Pros and cons of using building information modeling
in the AEC industry. Journal of Construction Engineering and Management,
145(8), 04019046.
20. 20
Seminar Presentation June-2022 20
References
[17] Yang, J., Park, M. W., Vela, P. A., & Golparvar-Fard, M. (2015).
Construction performance monitoring via still images, time-lapse photos,
and video streams: Now, tomorrow, and the future. Advanced Engineering
Informatics, 29(2), 211-224.
[18] Han, K. K., Cline, D., & Golparvar-Fard, M. (2015). Formalized
knowledge of construction sequencing for visual monitoring of work-in-
progress via incomplete point clouds and low-LoD 4D BIMs. Advanced
Engineering Informatics, 29(4), 889-901.
[19] Rajendran, S., & Clarke, B. (2011). Building Information Modeling:
safety benefits & opportunities. Professional Safety, 56(10), 44-51.
[20] Azhar, S., & Behringer, A. (2013, April). A BIM-based approach for
communicating and implementing a construction site safety plan. In Proc.,
49th ASC Annual International Conference Proceedings.
[21] John, G., & Ganah, A. (2011). Integrating BIM and planning software
for health and safety site induction.
[22] Latiffi, A. A., Mohd, S., Kasim, N., & Fathi, M. S. (2013). Building
information modeling (BIM) application in Malaysian construction industry.
International Journal of Construction Engineering and Management, 2(4A),
1-6.