1. BIM and Project Controls
اﻟﺒﯿﻢ ﺑﺎﺳﺘﺨﺪام اﻟﻤﺸﺮوﻋﺎت ﻓﻲ اﻟﻔﻌﺎل اﻟﺘﺤﻜﻢ اﺳﺘﺮاﺗﯿﺠﯿﺎت أﻓﻀﻞ
Omar Selim
General Manager of BIMarabia Research Center
2. Omar Selim
● Founder of BIMarabia
● BIM manager with 14 years of experience.
● Research Assistant at Qatar University
9. Why is BIM important now?
www.bimtaskgroup.org/
27. ✓ All project partners – uses a single, shared 3D
model, cultivating collaborative working
relationships.
✓ This ensures everyone is focused on achieving best
value, from project inception to eventual
decommissioning.
Better outcomes through collaboration
31. Benefits of 5D BIM :-
• Understand the scope of the projects in a superior manner with visual and data modeling capabilities. The costs are driven by formulas on every
building system on the basis of the certain design, materials, site conditions, phasing and other parameters with reference to the owner’s timeline.
• The project team members will be able to easily understand the projected design, assumptions and cost drivers. They can obtain a transparent and
perfect description of scope, cost and schedule upon which funding decisions are taken.
• Data is achieved in real time once the model is developed or modified. Substitute perceptions can also be easily searched, when owner and project
team can get the cost and other data disclosed instantly. It radically reduces design and estimation cycle time. With authentic, perfect updates in real
time, the efficiency is enhanced.
• Databases allow leveraging historical data as well as industry experience. Data can be utilized from particular sectors like healthcare or distribution
center construction.
• All the interested parties associated with the project can visualize the end product and properly understand what’s comprised in the budget.
• The construction costs are modified automatically in real-time with the alteration in the model. “What-if’s” turns to be productive and captivating solution
missions for the project team members, specifically the owner.
5D
32. ✓ Agreeing the design concept early in project development to eliminate late stage
design changes;
✓ Using standard design elements when practicable;
✓ Resolving complex construction details before the project goes on site;
✓ Avoiding clashes;
✓ Taking advantage of intelligence and automation within the model to check design
integrity and estimate quantities;
✓ Producing fabrication and construction drawings from the model; and Using data to
control construction equipment.
TIME CONTROL
35. ✓ BIM makes possible swift and accurate
comparison of different design options.
➢ enabling development of more efficient,
cost-effective and sustainable solutions.
Enhanced & optimized performance
36. ▶ Through deployment of new generative
modeling technologies, solutions can be
cost-effectively optimized against agreed
parameters.
Optimized solutions
37. ✓ Crowd behavior and fire modeling capability enable designs to be optimized for
public safety.
➢ Asset managers can use the 3D model to enhance operational safety.
➢ Contractors can minimize construction risks by reviewing complex details or
procedures before going on site.
Reduced safety risk
39. Safety: BIM-based Safety Planning -
Site Layout Planning Optimise site layout plan by examination of the location of material storage area,
machinery location, movement of machinery, access way, impact to site surroundings, etc.
43. Greater predictability
✓ Projects can be visualized at an early stage - giving owners and operators a clear
idea of design intent and allowing them to modify the design to achieve the
outcomes they want.
✓ In advance of construction, BIM also enables the project team to ‘build’ the project
in a virtual environment, rehearsing complex procedures, optimizing temporary
works designs and planning procurement of material, equipment and manpower.
44. BIM-based Safety Management Plan
Safety management could form a part of BIM-based construction
procedures. BIM solutions can include construction process data such as
activities and their logic – also widely called 4D models – additional
dimension: time.
45. Safety: BIM-based Safety Planning - Crane Reach and Risk Zone
(i) BIM-based site planning to check crane reach and
capability in construction works.
(ii) Examine risks in case of load fall.
(iii) Evaluate what the crane jib could hit.
(iv) The significant of this kind of examination increase if
there is limited space around the construction site and
clashes become possible.
47. Problems in Construction Industry Lot of
Challenges
● Poorly Coordinated Design Documents
● Change Orders & Rework
● Delays & Cost Overruns
● Claims & Litigation
● Greater Risk
● Poor Turnover Documents
● Frustrated Owners
● Tight Profit Margins
● 25% of world solid waste.
● Buildings consume 30% of raw materials.
● Buildings consume 42% world’s energy 5
● Source: Organization for Economics Cooperation & Development (OECD)
48. Typical Problems in Construction
Industry
● Lack of Proper Planning
● Lack of Coordination
● Lack of Professional Specialized Education
● Poor Decision Making
● Inefficient dispute resolution mechanism
● Lack of Mediation
● Difficulty in responsibility fixation
● Lack of Project Monitoring/ Program Monitoring
● Reluctance in adoption of new technology
● Lack in Value Engineering adoption
● Lack of Integrated Project Delivery
49. Typical Problems in Construction
Industry
● 30% of projects do not meet original program or budget
● 92% of clients said that designers drawings are typically not sufficient for
construction
● 37% of materials used in construction become waste
● 10% of the cost of a project is typically due to change orders
● 38% of carbon emissions are from buildings not cars
CMAA Owners survey, CMAA Industry Report, Economist Magazine
52. EcoBuild America
AEC-ST Science and Technology
May 21, 2008
3D (BIM) Steel Detailing
Tekla Structures X-Steel Model by Dowco Consultants in collaboration
with LPR, Zimmerman, Structural Consultants Inc.
67. Fits first time
✓ Integrating multidisciplinary design inputs using a single 3D model allows
➢ interface issues to be identified and resolved in advance of construction
➢ eliminating the cost and time impacts of redesign.
✓ The model also enables new and existing assets to be integrated seamlessly.
75. Reduced waste
▶
The Construction Industry Institute estimated the percentage of waste and ineffective business
approximately about 57% of the cost of construction, as well as the cost of the interference between
the architecture engineering construction software is estimated about $15.8 billion in all fields over the
past years to adopt interchangeable software. This money could be used to make the projects more
efficient and sustainable, if only it had been invested in staff training and construction of the new
technologies. So the construction industry was waiting and needing BIM
✓ Exact quantity take-offs mean that material are not over-ordered.
✓ Precise programme scheduling enables just-in-time delivery of material and equipment, reducing
potential for damage.
✓ Use of BIM for automated fabrication of equipment and components enables more efficient
materials handling and waste recovery.
84. Major Technology Trends
o 3D Printing
o Robotics
o Laser Scanning
o Drones
o Cloud computing
o Augmented/Virtual Reality
o Real-time collaboration
o Generative design
o IOT (internet of things)
o Big Data
o Machine Learning
86. BIM Collaboration
ARCH STRUCT MECH ELEC FM
CIVIL
“Federated”
data model
•distributed files
•dynamic references
•discipline security
•manageable file size
86
87. ✓ All project partners – uses a single, shared 3D
model, cultivating collaborative working
relationships.
✓ This ensures everyone is focused on achieving best
value, from project inception to eventual
decommissioning.
Better outcomes through collaboration
87
89. Questions ?
BIM 4D Modeling - Through the project life cycle
Omar Selim
89