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In spite of the fact that the development business has been advancing for quite a long time and analysts have been looking for imaginative answers for quite a long time, different difficulties actually exist for making the development cycle quicker, more secure, less expensive, and more precise. Nonetheless, it is presently accepted that Building Information Modeling BIM can prompt more noteworthy productivity through the gradual cooperation. The information in BIM framework are incredibly helpful and can be produced to streamline the task conveyance measures. Since BIM fabricates the arrangement cost and requires a significant desire to assimilate data, adventure individuals are totally stressed over the endeavor cost, forestalling the gathering of BIM for the undertaking transport. The rise of Building Information Model BIM , an elective innovation is accepted to fathom issues identified with venture cost and time control as it productively expands coordinated effort between partners. The point of this paper is to audit and sum up the reasons for deferral and cost overwhelm in development enterprises, which are the fundamental driver of debates and deserting of ventures in the business. It was discovered that postponements and cost overwhelm eat profound into the business and leave the development business with an awful picture for quite a long time even with quick headway in innovation. Shivangi Gohil | Sandeep Verma "Evolution of Quantitative Effects of Construction Changes on Labor Productivity, Time and Cost Control Using Building Information Modeling" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-1 , December 2020, URL: https://www.ijtsrd.com/papers/ijtsrd35886.pdf Paper URL : https://www.ijtsrd.com/engineering/civil-engineering/35886/evolution-of-quantitative-effects-of-construction-changes-on-labor-productivity-time-and-cost-control-using-building-information-modeling/shivangi-gohil

Building Information Modeling (BIM) is the new face of construction modernization, which provides a holistic digital platform that consolidates various aspects of a project from design to facility management in one common model. Access to real time, rich data models enables BIM as a means to improve collaboration, efficiency and sustainability in construction for stakeholders. BIM’s expands functionality beyond traditional design tools by allowing for additional dimensions, including time (4D), cost (5D) and, sustainability (7D). In this paper, we present the details of the core components of BIM, the difficulties & benefits behind its adoption, and its ongoing synergy with artificial intelligence (AI), digital twins & the Internet of Things (IoT). This paper draws on research published between 2020 and 2024 to explore how BIM is assuming much larger roles in addressing the complexity of modern construction projects and how it can shape the future of the industry.

Over time, several procurement methods have been adopted to facilitate the successful delivery of construction projects with minimal financial losses in order to offer maximum value to clients. In recent years, the Integrated Project Delivery (IPD) procurement model has been introduced for better overall financial performance. In this model, every member of the project team has a stake in overall profit or risk irrespective of the extent of their roles and change orders and correction of errors and omissions are managed effectively with minimal contractual disruptions. This paper aims to address some of the previously cited barriers in earlier scholarly work, and it proposes a conceptual framework that integrates two novel concepts towards tackling technological and financial barriers in adopting IPD namely, BIM and Smart Contracts (SC). A framework is developed for a BIM-blockchain-IPD whereby the BIM model is integrated with blockchain technology, thereby acting as an immutable and transparent information repository and a platform for interdisciplinary collaboration in Architecture, Engineering and Construction (AEC) projects. The smart contract feature of blockchain technology offers an automated equitable distribution of risk and reward amongst project stakeholders based on agreements at project inception. Thus, the research contributes to a more efficient project delivery method by avoiding information asymmetry amongst stakeholders through a tamper-proof, BIM-enabled Common Data Environment (CDE). The proposed framework is validated with qualitative analysis of information obtained based on AEC industry procurement workflows

revit

By confronting the cost estimation process within construction with the revolution in Building Information Modeling (BIM), manual, error-prone methods have been replaced with dynamic, automated solutions. However, such traditional cost estimation methods require manual input, static data and are prone to budget overruns and delays. Using real time data and automating quantity take off, BIM helps to increase the accuracy of the cost estimates, fully utilize resources and facilitate better collaboration between stakeholders. While these advantages exist, BIM adoption is, however, limited by challenges including high implementation costs, incompatibility interfacing among software's platform, and specialized training required. In this paper, an extensive review of BIM integration to the cost estimation process, along with the advantages and drawbacks are presented with case studies. Opportunities for eliminating adoption barriers and exploiting the powers of BIM to transform the quantity estimation function in the construction industry are proposed.

By confronting the cost estimation process within construction with the revolution in Building Information Modeling (BIM), manual, error-prone methods have been replaced with dynamic, automated solutions. However, such traditional cost estimation methods require manual input, static data and are prone to budget overruns and delays. Using real time data and automating quantity take off, BIM helps to increase the accuracy of the cost estimates, fully utilize resources and facilitate better collaboration between stakeholders. While these advantages exist, BIM adoption is, however, limited by challenges including high implementation costs, incompatibility interfacing among software's platform, and specialized training required. In this paper, an extensive review of BIM integration to the cost estimation process, along with the advantages and drawbacks are presented with case studies. Opportunities for eliminating adoption barriers and exploiting the powers of BIM to transform the quantity estimation function in the construction industry are proposed.

Demo del libro Building Information Modeling Conceptos básicos

Trajectory reconstruction of pedestrian is of paramount importance to understand crowd dynamics and human movement pattern, which will provide insights to improve building design, facility management and route planning. Camera-based tracking methods have been widely explored with the rapid development of deep learning techniques. When moving to indoor environment, many challenges occur, including occlusions, complex environments and limited camera placement and coverage. Therefore, we propose a novel indoor trajectory reconstruction method using building information modeling (BIM) and graph neural network (GNN). A spatial graph representation is proposed for indoor environment to capture the spatial relationships of indoor areas and monitoring points. Closed circuit television (CCTV) system is integrated with BIM model through camera registration. Pedestrian simulation is conducted based on the BIM model to simulate the pedestrian movement in the considered indoor environment. The simulation results are embedded into the spatial graph for training of GNN. The indoor trajectory reconstruction is implemented as GNN conducts edge classification on the spatial graph

This research assessed the impact of Building Information Modeling (BIM) implementation on construction projects according to six primary key performance indicators (KPIs) commonly used in the construction industry as accepted metrics for assessing project performance. These include: quality control (rework), on-time completion, cost, safety (lost man-hours), dollars/unit (square feet) performed, and units (square feet) per man hour. In the first research phase, data was collected through a survey instrument intended to assess practitioners' perceptions about the impact of BIM on the six KPIs. Three iterations of the survey were conducted and it was determined that the highest ranking KPIs in order of most favorable responses were quality control, on time completion, and units per man hour. The second tier of favorable responses included overall cost and cost per unit. In this second phase of research, projects were evaluated through interviews and case studies on-site at two U.S. Army Corps of Engineer (USACE) Districts in Seattle, WA and Louisville, KY to determine their KPIs through embedded research. In the third phase of research, quantitative results were gathered from the USACE construction productivity database interface: the Resident Management System (RMS). Subsequently the pilot projects were compared to a control dataset consisting of similar facilities across the USACE using traditional approaches through benchmarks aligned with metrics similar to the KPIs used in the surveys. Both BIM-based projects demonstrated statistically significant (favorable and unfavorable) performance differences when compared to the control dataset. Finally, an evaluation tool was developed and validated for implementing a construction productivity measurement system to supplement existing procedures suitable for evaluating construction productivity differences on BIM-based projects.

The architecture, engineering, and construction industries are pursuing process and technological innovations to save time and money and to enhance the quality of projects through the design, construction, and handover phases. Building Information Modeling (BIM) is a new technology designed to improve this process. The U.S. Army Engineer Research and Development Center (ERDC) is making an effort to implement BIM. The U.S. Army Corps of Engineers (USACE), New York District (CENAN), requested assistance from the CAD/BIM Technology Center at ERDC s Information Technology Laboratory, Vicksburg, Mississippi, to research the benefits of BIM throughout the life-cycle process with the aim of improving the quality of its services and provide a competitive advantage. The Asymmetric Warfare Group Complex (AWG) at Fort Meade, Maryland, served as the pilot project, depicting the BIM process during the design, construction, and handover phases. ERDC, CENAN designers, Bentley Systems, and the Fort Meade Department of Public Works (DPW) joined together to capture and deliver realtime building information. This BIM Primer report documents changes in the building process and the supplemental software required to deliver accurate record drawings and data documentation. This report covers the initial parts of the project, including research of BIM products and the design phase of the AWG endeavor. During the early stages, Fort Meade DPW personnel outlined the data required for operations and maintenance, as well as facility management software they are using and would like to use. ERDC believes that including the end user in the design phase will result in the extension of BIM benefits in the latter phases of a building s life cycle.

The construction industry is currently witnessing a transformative period characterized by the convergence of the green and digital transitions. The green transition seeks to address environmental challenges such as climate change and resource depletion, while the digital transition leverages advanced technologies to enhance construction processes. This paper specifically explores the integration of green roofs, as component of sustainable buildings, into the Building Information Modeling (BIM) framework, a key enabler of the digital transition. Green roofs, known for their environmental benefits, consist of layers that contribute to energy efficiency, stormwater management, and biodiversity enhancement. To optimize their design and performance, this research employs Dynamo Visual Programming Language (VPL) within Autodesk Revit to create parametric models of green roofs. These models facilitate the evaluation of thermal and structural characteristics under varying water content conditions (dry and saturated). Results reveal that the choice of substrate and drainage materials significantly impacts thermal resistance, particularly in dry conditions. However, in saturated conditions, the influence on thermal performance converges, emphasizing the importance of structural considerations in both scenarios. The research also highlights various limitations and outlines avenues for future studies, including expanding the range of materials, exploring additional performance metrics, and incorporating AI and machine learning techniques. By addressing these aspects, this research contributes to a comprehensive understanding of the integration of green roofs and BIM. It provides designers and researchers with a practical tool for optimizing green roof designs, aligning with contemporary sustainable construction practices, and promoting the holistic development of green buildings

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The construction industry consumes a large amount of raw materials and produces large amounts of carbon dioxide emissions. However, studies have shown that philosophies alone are not efficient in solving problems in the construction industry. They must be supported by new tools and methodologies. Therefore, this study aimed to achieve a more sustainable building field by integrating BIM technology and value engineering principles in the management of building materials. to achieve the highest possible consumption of environmental resources and materials through value engineering. The methodology employed in this study was to develop a material waste management system for construction projects. Starting in the early design phase, develop a decision-making process for selecting the optimum floor tile size according to room dimensions. Some materials, such as floor tiles, wooden panels, and marble, can be used more efficiently using BIM and scheduling tools. Floor tiles are essential finishing materials in the AEC industry. The initial findings outline the benefits that can be obtained by using BIM tools to achieve waste minimization through value engineering principles by creating an automation process to choose the best floor tile size according to the space width and length and minimize the percentage of cut tiles to the total number of tiles that are used in the space. This provides a game-changing solution for construction stakeholders

The construction industry consumes a large amount of raw materials and produces large amounts of carbon dioxide emissions. However, studies have shown that philosophies alone are not efficient in solving problems in the construction industry. They must be supported by new tools and methodologies. Therefore, this study aimed to achieve a more sustainable building field by integrating BIM technology and value engineering principles in the management of building materials. to achieve the highest possible consumption of environmental resources and materials through value engineering. The methodology employed in this study was to develop a material waste management system for construction projects. Starting in the early design phase, develop a decision-making process for selecting the optimum floor tile size according to room dimensions. Some materials, such as floor tiles, wooden panels, and marble, can be used more efficiently using BIM and scheduling tools. Floor tiles are essential finishing materials in the AEC industry. The initial findings outline the benefits that can be obtained by using BIM tools to achieve waste minimization through value engineering principles by creating an automation process to choose the best floor tile size according to the space width and length and minimize the percentage of cut tiles to the total number of tiles that are used in the space. This provides a game-changing solution for construction stakeholders

By confronting the cost estimation process within construction with the revolution in Building Information Modeling (BIM), manual, error-prone methods have been replaced with dynamic, automated solutions. However, such traditional cost estimation methods require manual input, static data and are prone to budget overruns and delays. Using real time data and automating quantity take off, BIM helps to increase the accuracy of the cost estimates, fully utilize resources and facilitate better collaboration between stakeholders. While these advantages exist, BIM adoption is, however, limited by challenges including high implementation costs, incompatibility interfacing among software's platform, and specialized training required. In this paper, an extensive review of BIM integration to the cost estimation process, along with the advantages and drawbacks are presented with case studies. Opportunities for eliminating adoption barriers and exploiting the powers of BIM to transform the quantity estimation function in the construction industry are proposed.

As the world moves toward a low-carbon future, a key challenge is improving buildings’ energy performance while maintaining occupant thermal comfort. Emerging digital tools such as the Internet of Things (IoT) and Building Information Modeling (BIM) offer significant potential, enabling precise monitoring and control of building systems. However, integrating these technologies into a unified Digital Twin (DT) framework remains underexplored, particularly in relation to thermal comfort. Additionally, real-world case studies are limited. This paper presents a DT-based system that combines BIM and IoT sensors to monitor and control indoor comfort in real time through an easy-to-use web platform. By using BIM spatial and geometric data along with real-time data from sensors, the system visualizes thermal comfort using a simplified Predicted Mean Vote (sPMV) index. Furthermore, it also uses a hybrid machine learning model that combines Facebook Prophet and Long Short-Term Memory (LSTM) to predict the future indoor environmental parameters. The framework enables Model Predictive Control (MPC) while providing building managers with a scalable tool to collect, analyze, visualize, and optimize thermal comfort data in real time.

India’s architecture, engineering, and construction (AEC) landscape is experiencing a true digital revolution—and at the heart of this transformation lies Building Information Modeling (BIM). BIM modeling services in India are helping developers, contractors, architects, and government agencies deliver projects faster, more accurately, and with better cost control than ever before. But what exactly sets BIM modeling apart, and why are Indian BIM service providers now in such high global demand? What Are BIM Modeling Services? At its core, BIM modeling means creating intelligent, data-rich 3D digital representations of a building or infrastructure project. Unlike traditional 2D drawings, BIM models encapsulate not only geometry, but also quantities, schedules, cost data, and even facility management insights. Through its integrated approach, BIM provides a single “source of truth” for all stakeholders, enhancing project coordination and ensuring a more predictable path from concept to completion . Are you Searching for architectural modeling services in India to bring your concepts to life in 3D? DesignHeed is here to help you visualize success.

India’s architecture, engineering, and construction (AEC) landscape is experiencing a true digital revolution—and at the heart of this transformation lies Building Information Modeling (BIM). BIM modeling services in India are helping developers, contractors, architects, and government agencies deliver projects faster, more accurately, and with better cost control than ever before. But what exactly sets BIM modeling apart, and why are Indian BIM service providers now in such high global demand? What Are BIM Modeling Services? At its core, BIM modeling means creating intelligent, data-rich 3D digital representations of a building or infrastructure project. Unlike traditional 2D drawings, BIM models encapsulate not only geometry, but also quantities, schedules, cost data, and even facility management insights. Through its integrated approach, BIM provides a single “source of truth” for all stakeholders, enhancing project coordination and ensuring a more predictable path from concept to completion . Are you Searching for architectural modeling services in India to bring your concepts to life in 3D? DesignHeed is here to help you visualize success.

Guests: Jack S. Nyman (Execuitve Director, Steven L. Newman Real Estate Institute), Robert D. LiMandri , The Honorable Elizabeth Crowley , John A. Rapaport, Judith Kunoff, Safiy Abdur-Rahman, Jordan Goldstein, Nichole L. Dubowski, Igor Starkov, Michael S. Zetlin.  Presented by The Steven L. Newman Real Estate Institute at Baruch College.  Taped at Baruch College, Feb. 28, 2013.

Building Information Modeling (BIM) technology has rapidly gained acceptance throughout the planning, architecture, engineer-ing, construction, operations, and maintenance industries. The challenge for the US Army Corps of Engineers (USACE) is to ex-tend BIM use beyond its basic labor- and time-saving benefits to become a fully realized information network that permanently transforms conventional business processes to unprecedented levels of efficiency and organization. This document describes the current USACE strategic plan, reflecting progress made toward the goals of the original 2006 USACE BIM roadmap as published in Engineer Research and Development Center (ERDC) Technical Report TR-06-10 (October 2006). This update of the strategic roadmap focuses on fuller integration of BIM technologies into USACE planning, design, construction, and operations and maintenance (O&M) processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is BIM implementation within the business processes of the Military Construction (MILCON) and Civil Works programs, including pro-cesses for working with USACE industry partners and software vendors.

The research focuses on an approach for the development of an automated workflow in the field of fire prevention for the validation of BIM models regarding “Subjected Activities” (according to Italian law - Presidential Decree 151/2011), with reference to the contents of the Horizontal Technical Regulation of the Fire Prevention Code. In fact, since 2019, the Italian Fire Department, through the Fire Digital Check project, is seeking to digitize the Fire Prevention Code in order to allow professionals to integrate their BIM models with the objectives required by the fire regulations. The workflow proposed involves three distinct processes, integrating them within a single workflow: study of the technical regulations and transposition into the digital environment using proven methods such as RASE, Tx3 and TIO, information modelling of a case study and implementation of validation algorithms using Solibri software. One of the main points of the proposed process is to use an open and interoperable format such as that offered by the IFC schema for the information exchange between the different software involved

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This article will assume that one has heard of Building Information Modeling or BIM but has not developed a strategy as to how to get the most out of it. The National BIM Standard (NBIMS) has defined BIM as a digital representation of physical and functional characteristics of a facility. As such, it serves as a shared knowledge resource for information about a facility, forming a reliable basis for decisions during its life cycle from inception onward. A basic premise of BIM is collaboration by different stakeholders at different phases of the life cycle of a facility to insert, extract, update, or modify information to support and reflect the roles of that stakeholder. The BIM is a shared digital representation founded on open standards for interoperability.

There are some words in the building industry that seem to be clear and understandable to say, yet they need some help in understanding the depth of the meaning. When the term maintenance is talked about there seems to be some agreement that it does not mean building a new building. Maintenance as a term covers many areas and if not clarified could be interpreted to mean a lot of things. Entering into the maintenance vocabulary are some new words. One of the words that seems simple to talk about yet is hard to find a common definition for is the term "Sustainability." Another new word is "interoperability," which is sometimes referred as a technology term. Sustainability and interoperability are terms and definitions that help describe two additional terms that are impacting the profession: BIM-"Building Information Modeling" and TCO-"Total Cost of Ownership." The only way these two terms are made feasible is if the practice of sustainability and interoperability is not just a planted idea in the minds of an organization, but that steps are being taken to incorporate the terms into the core way in which management sees its role and vision as facilities managers. These terms, if taken on by any organization, must be understood as a "paradigm shift" and that everything that is currently being done needs to be seen through this new vision.

Building information modelling BIM is a holistic process most commonly used in the construction industry. It is one of the most promising developments in the architecture, engineering, and construction AEC industries. BIM is one of the disrupting technologies in the construction industry that allows the project stakeholders, primarily, architects, designers, engineers, and contractors to visualize how their contributions fit in the big picture. It is a digital representation of the physical and functional characteristics of a building or facility. This digital transformation is providing value across the construction industry. The main objective of BIM is to enhance project performance and produce better outcomes. BIM is transforming the way construction and infrastructure projects are planned, designed, constructed, and managed. It is a powerful driver leading the construction sector towards sustainability. The aim of this paper is to examine how BIM is used in the construction industry. Matthew N. O. Sadiku | Paul A. Adekunte | Janet O. Sadiku "Building Information Modeling for Construction" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-9 | Issue-1 , February 2025, URL: https://www.ijtsrd.com/papers/ijtsrd73820.pdf Paper Url: https://www.ijtsrd.com/engineering/civil-engineering/73820/building-information-modeling-for-construction/matthew-n-o-sadiku

Building Information Modeling (BIM) technology has rapidly gained acceptance throughout the planning, architecture, engineering, construction, operations, and maintenance industries. The challenge for the US Army Corps of Engineers (USACE) is to extend BIM use beyond its basic labor- and time-saving benefits to become a fully realized information network that permanently transforms conventional business processes to unprecedented levels of efficiency and organization. This document describes the current USACE strategic plan, reflecting progress made toward the goals of the original 2006 USACE BIM roadmap as published in Engineer Research and Development Center (ERDC) Technical Report TR-06-10 (October 2006). This update of the strategic roadmap focuses on fuller integration of BIM technologies into USACE planning, design, construction, and operations and maintenance (O&M) processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is BIM implementation within the business processes of the Military Construction (MILCON) and Civil Works programs, including processes for working with USACE industry partners and software vendors.

Building Information Modeling (BIM) is a technology that is rapidly gaining acceptance throughout the planning, architecture, engineering, construction, operations, and maintenance industries. The challenge to the U.S. Army Corps of Engineers (USACE) is to proactively prepare for BIM, use it to drive down costs and delivery time, and maintain or even improve quality at the same time. This document outlines the strategic and implementation plans for using BIM technology to improve USACE planning, design, and construction processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is to focus on the implementation of BIM in the U.S. Army Corps of Engineer's civil works and military construction business processes, including the process for working with the USACE Architectural Engineering Construction (AEC) industry partners and software vendors.

The main focus of the Public Private Partnership (PPP) is to maximise the projects' profitability. Building Information Modeling (BIM) can help decision-makers make educated decisions throughout the project's life cycle. However, despite the number of studies on BIM for PPP projects, many challenges, inconveniencies, and hurdles still face the successful and feasible implementation of BIM in PPP projects. The study presents a systematic review based on an in-depth review of 56 journal articles published from 2012 to 2022 of the status of Building Information Modeling (BIM) adoption in Public Private Partnerships (PPP) projects, highlights current trends and patterns, and systematically outlines future research agenda. Finally, it is hoped that this research will argue for the future development of a smoother BIM adoption in PPP projects to overcome hurdles and improve overall project outcomes. The results of this study clarify the current research areas and future research agenda in the field of BIM for PPP projects. Defining current and future research on the topic will help the smooth implementation of BIM in PPP projects to reap the benefits, overcome the challenges and provide key decision-makers with the ability to make educated decisions across the project life cycle.

Building information modeling BIM is a way of representing a built asset as a digital model. It allows architects, engineers, and other stakeholders to explore every aspect of a building–foundations, surroundings, past configurations, and even possible futures. It is the foundation of digital transformation in the architecture, engineering, and construction AEC industry. It has emerged as a revolutionary force in the architecture industry, transforming the way buildings are designed, constructed, and maintained. BIM, the pinnacle of architectural innovation, has ushered in a new era of design possibilities. This paper is intended to provide the use of BIM in the architecture industry. It unveils how BIM empowers architects to transcend boundaries and reshape the architectural process. Matthew N. O. Sadiku | Paul A. Adekunte | Janet O. Sadiku "Building Information Modeling for Architecture" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-9 | Issue-1 , February 2025, URL: https://www.ijtsrd.com/papers/ijtsrd73841.pdf Paper Url: https://www.ijtsrd.com/engineering/civil-engineering/73841/building-information-modeling-for-architecture/matthew-n-o-sadiku

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Learn more about this innovative and exciting program at bimm.highlands.edu

Learn more about this innovative and exciting program at bimm.highlands.edu

How to Cite FERIEL, B., ILHAM, K., & SOUAD, S. (2018). Investigating the Synergy of Integrated Project Delivery and Building Information Modeling in the Conservation of the Architectural Heritage.  International Journal of Contemporary Urban Affairs ,  2 (3), 67-77. https://doi.org/10.25034/ijcua.2018.4720                                                                                                                                  Contemporary Urban Affairs                                                                                                         2018, Volume 2, Number 3, pages 67– 77 Investigating the Synergy of Integrated Project Delivery and Building Information Modeling in the Conservation of the Architectural Heritage   * Dr. BRAHMI BANI FERIEL, Dr. KITOUNI ILHAM and Dr. SASSI BOUDEMAGH SOUAD AVMF laboratory, Faculty of Architecture and Urban Planning, Salah Boubnider-Constantine03 University, Constantine, Algeria  MISC laboratory, Faculty of New Information and Communication Technologies, Abdelhamid Mehri-Constantine02 University, Constantine, Algeria E mail: [email protected]   E mail: [email protected]  E mail: [email protected]   A B S T R A C T   Architectural heritage conservation projects are one of the most risky and complex projects in the construction industry. Many studies have reported frequent performance failures in terms of time, cost and quality. To implement a quality management in the conservation projects and enhance their performance; we propose the adoption of two emerging and innovative approaches: Integrated Project Delivery (IPD) and Building Information Modeling (BIM). Through an analysis of literature review (journals, white papers, norms and standards) on the subject, a comprehensive qualitative study in theoretical term has been carried out to define the potential advantages of the synergy between the BIM and IPD to face conservation issues and constraints through project lifecycle. Finally, we draw some general conclusions, summarize the implications for practice and set out recommendations for further research.

How to Cite FERIEL, B., ILHAM, K., & SOUAD, S. (2018). Investigating the Synergy of Integrated Project Delivery and Building Information Modeling in the Conservation of the Architectural Heritage.  International Journal of Contemporary Urban Affairs ,  2 (3), 67-77. https://doi.org/10.25034/ijcua.2018.4720                                                                                                                                  Contemporary Urban Affairs                                                                                                         2018, Volume 2, Number 3, pages 67– 77 Investigating the Synergy of Integrated Project Delivery and Building Information Modeling in the Conservation of the Architectural Heritage   * Dr. BRAHMI BANI FERIEL, Dr. KITOUNI ILHAM and Dr. SASSI BOUDEMAGH SOUAD AVMF laboratory, Faculty of Architecture and Urban Planning, Salah Boubnider-Constantine03 University, Constantine, Algeria  MISC laboratory, Faculty of New Information and Communication Technologies, Abdelhamid Mehri-Constantine02 University, Constantine, Algeria E mail: [email protected]   E mail: [email protected]  E mail: [email protected]   A B S T R A C T   Architectural heritage conservation projects are one of the most risky and complex projects in the construction industry. Many studies have reported frequent performance failures in terms of time, cost and quality. To implement a quality management in the conservation projects and enhance their performance; we propose the adoption of two emerging and innovative approaches: Integrated Project Delivery (IPD) and Building Information Modeling (BIM). Through an analysis of literature review (journals, white papers, norms and standards) on the subject, a comprehensive qualitative study in theoretical term has been carried out to define the potential advantages of the synergy between the BIM and IPD to face conservation issues and constraints through project lifecycle. Finally, we draw some general conclusions, summarize the implications for practice and set out recommendations for further research.

Building Information Modeling With Autodesk Revit Video (Autodesk)(Disk 2)(000000000000000114326)(2004)

Building Information Modeling With Autodesk Revit Video (Autodesk)(Disk 2)(000000000000000114326)(2004)

This research aims to create new ways to create information about architecture, and then, according to the things presented above, it describes and examines the main and secondary indicators. The purpose of this study is to investigate the concept, advantages, limitations, and challenges of public-private collaboration of BIM and SCM. The main indicators in this research are management factors and project beneficiaries, technical and infrastructure factors, financial factors, and safety and quality factors. After identifying the small signs and symptoms, first, by placing the big signs, the ranking of the two comparisons related to the big signs is entered into the Selection Expert program. Then, their weight is determined based on the AHP algorithm. The findings of the research show that the criterion of managerial factors and project stakeholders with a weight of (0.449) is the most important in examining the use of Building Information Modeling (BIM) in facilitating construction management and sustainable development in Supply Chain Management (SCM) in the construction industry. and the criteria of technical and infrastructural factors, economic factors and security and quality factors are ranked second to fourth with weights of 0.288, 0.152, 0.138 and 0.126 respectively. On the other hand, among the five objectives investigated, the option of reducing cost and time wastage with a weight of 0.279 is the best effect of using BIM in facilitating construction management and sustainable development in SCM. The selected construction industry, as well as the goals of improving operational efficiency, quality, and productivity, are ranked second and third with a difference of 4.66% and 17.20%, respectively.

Due to the fact that science is advancing and construction in our society is increasing, the engineering community is also obliged to introduce new approaches to the country and use them in this field. The traditional method (CAD) used to be used in this field and now the engineering community in most of the world uses Building Information Modeling (BIM) technology. BIM helps the project team observe what will be built in a simulated environment. This study examines the role of BIM in reducing time, cost savings, quality improvement, monitoring, control, estimating time and cost, comparing current conditions with standards, and reporting. We also compared the two projects, one using BIM and the other using the traditional method. The results showed that the use of BIM helps to include value engineering in projects, collisions do not occur during project implementation .

With the advent of Military Construction (MILCON) Transformation, the responsibility for conducting energy modeling late in the design process falls solely on the Design/Build contractor or their consultants. This research utilized Building Information Modeling (BIM) for energy analysis during the conceptual design phase. Most building energy analyses are conducted later in the design process by energy analysts. This report describes a process of exploring different energy saving alternatives in early design using 3D-CAD (computer-aided design)/BIM technology. This project investigated the feasibility of exporting a gbXML file from a BIM model for use in Green Building Studio, a computer-based energy analysis tool. The goal was to assess the applicability of this technology during a planning or early design charrette in order to identify energy saving measures equal to or exceeding the 30% energy-saving requirement over the ASHRAE baseline. This type of tool could potentially be used early in the project life cycle to evaluate alternative energy design schemas as part of an integrated whole-building design process.

Building Information Modeling (BIM) is the process of generating and managing building data during a facility's entire life cycle. New BIM standards for computable building information could serve as the foundation for automation and transformation of many current activities of the US Army Installation Management Command (IMCOM). As with any important emerging technology, a key issue for IMCOM is to decide when it makes economic sense to adopt BIM at the enterprise level. Facilities typically have an expected service life of 50-75 years, so the availability of up-to-date facility data through BIM on a moment's notice represents a great potential benefit to building operators and maintainers. This in turn implies that facility owners and occupants will ultimately have the most to gain from enterprise-wide BIM adoption. The purpose of this report is to help IMCOM to better understand the implications of large-scale adoption of BIM in terms of timing, costs, and benefits.

Building Information Modeling (BIM) is the process of generating and managing building data during a facility's entire life cycle. New BIM standards for computable building information could serve as the foundation for automation and transformation of many current activities of the US Army Installation Management Command (IMCOM). As with any important emerging technology, a key issue for IMCOM is to decide when it makes economic sense to adopt BIM at the enterprise level. Facilities typically have an expected service life of 50-75 years, so the availability of up-to-date facility data through BIM on a moment's notice represents a great potential benefit to building operators and maintainers. This in turn implies that facility owners and occupants will ultimately have the most to gain from enterprise-wide BIM adoption. The purpose of this report is to help IMCOM to better understand the implications of large-scale adoption of BIM in terms of timing, costs, and benefits.

Building Information Modeling (BIM) technology provides the communities of practice in facility planning, architecture, engineering, construction, operations, and maintenance with powerful tools to reduce building life-cycle costs, improve delivery time, and facilitate quality assurance. This report supplements the U.S. Army Corps of Engineers (USACE) strategy and plan for implementing BIM previously documented in ERDC TR-06-10, Building Information Modeling (BIM): A Roadmap for Implementation To Support MILCON Transformation and Civil Works Projects within the U.S. Army Corps of Engineers (October 2006). This report, Supplement 2 of ERDC TR-06-10, is intended for users of the Bentley platform who are working on BIM-related projects supervised by USACE. The text describes the Bentley workflow, and it highlights software capabilities and BIM project management practices that help the user make the most effective and efficient use of the Bentley platform.

Building Information Modeling (BIM) technology has rapidly gained acceptance throughout the planning, architecture, engineering, construction, operations, and maintenance industries. The challenge for the US Army Corps of Engineers (USACE) is to extend BIM use beyond its basic labor- and time-saving benefits to become a fully realized information network that permanently transforms conventional business processes to unprecedented levels of efficiency and organization. This document describes the current USACE strategic plan, reflecting progress made toward the goals of the original 2006 USACE BIM roadmap as published in Engineer Research and Development Center (ERDC) Technical Report TR-06-10 (October 2006). This update of the strategic roadmap focuses on fuller integration of BIM technologies into USACE planning, design, construction, and operations and maintenance (O&M) processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is BIM implementation within the business processes of the Military Construction (MILCON) and Civil Works programs, including processes for working with USACE industry partners and software vendors.

Building Information Modeling (BIM) technology has rapidly gained acceptance throughout the planning, architecture, engineering, construction, operations, and maintenance industries. The challenge for the US Army Corps of Engineers (USACE) is to extend BIM use beyond its basic labor- and time-saving benefits to become a fully realized information network that permanently transforms conventional business processes to unprecedented levels of efficiency and organization. This document describes the current USACE strategic plan, reflecting progress made toward the goals of the original 2006 USACE BIM roadmap as published in Engineer Research and Development Center (ERDC) Technical Report TR-06-10 (October 2006). This update of the strategic roadmap focuses on fuller integration of BIM technologies into USACE planning, design, construction, and operations and maintenance (O&M) processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is BIM implementation within the business processes of the Military Construction (MILCON) and Civil Works programs, including processes for working with USACE industry partners and software vendors.

Building Information Modeling (BIM) technology has rapidly gained acceptance throughout the planning, architecture, engineering, construction, operations, and maintenance industries. The challenge for the US Army Corps of Engineers (USACE) is to extend BIM use beyond its basic labor- and time-saving benefits to become a fully realized information network that permanently transforms conventional business processes to unprecedented levels of efficiency and organization. This document describes the current USACE strategic plan, reflecting progress made toward the goals of the original 2006 USACE BIM roadmap as published in Engineer Research and Development Center (ERDC) Technical Report TR-06-10 (October 2006). This update of the strategic roadmap focuses on fuller integration of BIM technologies into USACE planning, design, construction, and operations and maintenance (O&M) processes. It describes how USACE will meet or exceed the vision of its customers, including the Office of the Secretary of Defense (OSD), the Army, and the Air Force. The scope of this plan is BIM implementation within the business processes of the Military Construction (MILCON) and Civil Works programs, including processes for working with USACE industry partners and software vendors.

"MPA's decision to implement Building Information Modeling (BIM) represents a significant multi-year change in how MPA executes projects, develops information about its assets, and becomes a lean, virtual, and data-centric organization. When used successfully, BIM offers higher quality design and construction projects, and standardized information for more informed decisions. The information is more coordinated, reliable and reusable, allowing MPA project teams to be more productive and the design solutions functional, cost effective, and sustainable. Facilities information, created during a BIM project, can be re-purposed, reducing costly information management redundancies for post construction operations. BIM and Lean principles are equally essential enablers in MPA's strategy for innovative project delivery and lifecycle asset management. MPA expects BIM to be used within a Lean environment conducive to information flow, communication, analysis, and problem solving. Lean job sites promote safe, timely, and productive construction, and maximize information handover at project close." "All of these benefits have made BIM the predominant tool and process for design by our service providers. MPA's move to BIM confirms its belief in the importance of this industry change and the benefits BIM will accrue to MPA. This BIM Guide for Vertical and Horizontal Construction provides the vision and structure for MPA and its service providers, to develop successful BIM projects meeting MPA's mission."

This Building Information Modeling Exhibit (“Exhibit”) provides a binding roadmap for the future development of the protocols necessary to establish the expected Level of Development (“LOD”) of Model Elements for the Project at various milestones throughout the Project’s design and construction. It is intended that such protocols will be memorialized in the Project’s Building Information Modeling Execution Plan (“BIMxP”), which will be developed soon after execution of the Agreement to which this Exhibit is appended. The BIMxP will be updated in accordance with the requirements contained therein

BIM, CONSTRUCTION, COLLABORATION.