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Integrated teaching for

integrated engineering

practice - BIM on campus

Dr Jacek Magiera

Cracow University of Technology

Institute for Computational Civil Engineering

[email protected]

(2)

Outline

Motivation

BIM in industry and BIM on campus A.D. 2013

Benefits, obstacles and problems to be solved

Teaching BIM

Integrated learning environments for integrated

engineering practice

The Cracow University of Technology (CUT) perspective

Conclusions

(3)

Motto

„We must be systematic,

but we should keep our systems open”.

(4)

Motivation – why BIM here?

BIM is a moving spirit behind the fundamental change in

AEC industry

There is a growing interest/pressure/demand to

implement BIM in academic programs

BIM creates many opportunities for academia but equally

many (or ever more) hurdles and obstacles

It is critical to awake awareness of importance of BIM in

academia

It is critical to implement BIM-oriented and BIM-rich

curriculae/programs in Polish technical universities fast –

(5)

Motivation – why me here?

In 2010 at the Cracow University of

Technology created was a Center for

Autodesk Software Competence (CKA

PK), an initiative between the

University and two Autodesk Training

Centers/Partners for promoting

excellence in 3D design software

usage and training

I happen to coordinate the work of this

(6)

BIM in industry

(7)

BIM in industry

(8)

BIM in industry

(9)

BIM in industry

In those figures (in Europe):

Architects – 47%

Engineers – 38%

Contractors – 24%

Over a third of Western European BIM users

(34%) have over 5 years of experience using

BIM vs. only 18% in North America

70% of BIM experts report being heavy users,

meaning more than 60% of a user’s project

portfolio involves BIM

(10)

BIM in industry

Bernstein, H.M, et al., SmartMarket Report, McGraw Hill, 2012

Among all Western European users, 59% use BIM on more than 30% of their projects. This is striking compared with North America,

where 45% use it on 30% or more of their projects—despite the

fact that North America has a higher adoption rate. This indicates that those Western Europeans who have adopted BIM have

(11)

BIM in industry

Future Outlook

 The following percent of non-BIM users perceive

that BIM will be highly or very highly important to the industry in five years’ time:

 47% in South Korea (2012)

 24% in Western Europe (2010)

 42% North America (2009)

(12)

BIM in Poland

 Lack of broader research; in „Czas na zmiany.

Kompas inwestycji w Polsce 2012-2013” and „ Świadomość metodologii BIM w Polsceby Piotr Miecznikowski data from surveys of visitors of the portal bdzz.pl has been published:

(13)
(14)
(15)

BIM in Poland

(16)

BIM in Poland

Conclusions

 BIM has not yet quite made its way to the AECO

industry, but is growing

There is a rapidly growing market for BIM in the

Western Europe/USA, Poland will follow that pattern

The number of medium to big projects planned for

execution in the forthcoming years will create high demand for BIM trained professionals

 AEC graduates with BIM skills will have a competitive

(17)

BIM on campus

Adoption of BIM in academia is relatively new

effort

Teaching programs are offered in many

universities, however they are usually narrowed

to software training/studio usage

There is rapidly growing interest in developing

more wholistic approaches, offering

courses/programs on all levels (under-graduate,

graduate, post-graduate) and across the

(18)

BIM on campus – some

references

There is growing number of publications regarding the topic:

- BIM in Academia. Deamer P., Bernstein P.G., (Eds.),

Yale School of Architecture, New Haven, 2011

- Sabongi F. J. , „The Integration of BIM in the

Undergraduate Curriculum: an analysis of

undergraduate courses”, Minnesota State University, 2009

- Taylor M. J., Liu J., Hein M.F., „Integration of Building

Information Modeling (BIM) into an ACCE Accredited

Construction Management Curriculum”, Auburn University, 2008

(19)

BIM on campus – some

references

- Mulva, S. & Tisdel R. „Building information modeling: a new

frontier for construction engineering education”. American

Society for Engineering Education, 2007.

- Woo, J. H. „BIM (Building Information Modeling) and

Pedagogical Challenges”, International Proceedings of the 43rd Annual Conference of the Associated Schools of Construction,

Flagstaff, AZ, 2007

- Clevenger C.M., Ozbek M.E., Glick S., „ Integrating BIM into

Construction Management Education”, Colorado State University, (2010)

- Richards E., Clevenger C.M., „Interoperable Learning

Leveraging Building Information Modeling (BIM) in Construction Management and Structural Engineering Education”, 47th ASC Annual International Conference Proceedings , 2011

(20)

BIM on campus – some

references

- Penttilä H., Elger , D. „New Professional Profiles for

International Collaboration in Design and Construction”, Proc. 26th eCAADe Conference, 2008

- Becerik-Gerber B., Gerber J., Ku K.,”The pace of

technological innovation in architecture, engineering, and construction education: integrating recent trends into the curricula”, ITCon, Vol. 16, 2011

- Becerik-Gerber B. and Kensek K., „Building information

modeling in architecture, engineering and construction:

emerging research directions and trends”. ASCE Journal of

professional issues in engineering education and practice,

(21)

BIM on campus – some

references

- Bur, K.L., „Creative course design: a study in

student-centered course development for a sustainable building/BIM class”. Proceedings of the 45th ASC Annual Conference, Gainesville, Florida, April 1-4, 2009.

- Denzer A. S. and Hedges, K. E.,”From CAD to BIM:

Educational strategies for the coming paradigm shift”. In M. M. Ettouney (Ed.) AEI 2008: Building integrated solutions. Reston, VA, 2008

- Sacks R. and Barak. R.,”Teaching building information

modeling as an integral part of civil engineering in freshman year”. ASCE Journal of professional issues in engineering

(22)

BIM on campus – some

references

- Woo J. H., „Building information modeling and pedagogical

challenges”. Proceedings of the 43rd ASC National Annual

Conference, Flagstaff, AZ, April 12-14, 2006

- Barison M.B., Santos E. T., „ Review and analysis of current

strategies for planning a BIM curriculum ”, 2010

- Barison M.B., Santos E. T., „BIM teaching strategies: an

overview of the current approaches”, ICCCBE, Nottingham, 2010

- Wong K. D., Wong K.F., Nadeem A. „Building information

modelling for tertiary construction education in Hong Kong”, ITcon Vol. 16, 2011

- Nejat A., Darwish M.M., Ghebrab T., „BIM Teaching Strategy

for Construction Engineering Students”, American Society for Engineering Education, 2012

(23)

Obstacles in BIM adoption

on campuses

There are numbers of factors that affect adoption of

BIM in curruculae/programs:

BIM was created outside academia, it is implemented for

industry and by industry; academia has little to do or care about it;

 BIM is a very complex methodology, there is no way to

teach it as it would require enormous number of hours to implement it properly and there is no room for it

 BIM requires a highly specialized personnel, educators

seldom have expertise and skills to develop BIM courses;

 BIM requires a solid knowledge of business practice and

(24)

Obstacles in BIM adoption

on campuses

 there is scarcity of handbooks and other training

materials;

 it’s better to teach “pure” science; BIM is not a science, it

is just a tool, it requires “manual” skills the students can develop even by themselves;

BIM kills creativity, everything look similar because the

same elements are employed all the time;

 BIM requires advanced IT equipment and expensive

software; universities may have problems in getting the right IT environments/personnel

(25)

Obstacles in BIM adoption

on campuses

Becerik-Gerber B., Gerber J., Ku K.,”The pace of technological innovation in architecture, engineering, and construction education: integrating recent trends into the curricula”, ITCon, Vol. 16, 2011

(26)

Opportunities BIM creates

on campuses

 working knowledge of BIM is a wining skill on the market

and industry expects it; lack of BIM training will lead to marginalization of a university or faculty;

Academia will benefit greatly from lateral thinking BIM

requires; the teaching programs might be leveraged to new levels of attractiveness by easy showing on the

under- and graduate levels many aspects of the building industry;

 Sustainable development initiatives are hard to implement

outside the BIM environment; its rich data models are a natural starting point for the eco-analyses;

(27)

Opportunities BIM creates

on campuses

 BIM may enrich the students with new insight and better

understanding of the building performance; 3D

visualizations, walkthroughs, easy structural analysis, easy quantity take-offs and life cost estimates – all these and more will help to educate better, more responsible and aware architects/constructors/designers;

(28)

Teaching BIM. Strategies to

consider

 BIM is not a candidate for just another class, it requires to

train software skills in the first place, but even more important are „lateral” skills:

 Communication skills,

 Teamwork skills,

 development of the Kelley „T-shape professional personality”  Management skills

 The BIM-centric course/program has to develop

project-oriented communication skills that follow the rich,

intelligent and contextual data semantic/ontologies of the BIM model

The BIM-centric course/program has to introduce its

(29)

Teaching BIM. Strategies to

consider

 We should start on undergraduate level and continue

throughout all other levels: BIM is a process, teaching programs have to be a process

(30)

Teaching BIM. Strategies to

consider

(31)

Teaching BIM. Strategies to

consider

(32)

Teaching BIM. Strategies to

consider

„T-shape professional personality” [Kelley, Littman, 2005]

Kelley T., Littman J., „The ten faces of innovation: IDEO’s strategies for Beating the Devil’s Advocate & Driving Creativity Throughout your Organization”. Doubleday, NY, 2005 [after: Messner et al..”Educating the master Building team (…)” in: BIM in

(33)

Teaching BIM

A classic methodology: Negroponte, 1970

Negroponte N., The architecture machine, MIT Press, 1970 [after: Bernstein P.G., „BIM: Practice Context and Implications in Academy”.In: Bim in Academia, Yale, 2011

(34)

Teaching BIM

A classic methodology: Negroponte, 1970

- Followed in many teaching programs

- Builds the skill from simplest to more complex

- Criticized by some authors for teaching bad habits

(„CADization” or „draftization” of the design process)

- Designed for architects, does not develop

interdisciplinary skills

Negroponte N., The architecture machine, MIT Press, 1970 [after: Bernstein P.G., „BIM: Practice Context and Implications in Academy”.In: Bim in Academia, Yale, 2011

(35)

Teaching BIM

EXAMPLE: Brown, Univ. Calif. Berkeley, 2009. Strategies:

 Technology courses (software tools)

 Studio (performative design and analysis)

Building Systems or Environmental Controls (integrates

building technology knowledge and experience with software skills)

Interdisciplinary Courses (post secondary education,

integrate AEC branches)

 Professional Collaboration Studios (partnerships of

architectural schools and firms)

Brown N.C., Peña R., Teaching BIM: Best Practices for Integrating BIM into Architectural Curriculum?”, AU 2009

(36)

Teaching BIM

 PROJECT TYPES [Brown, cont.]]

- Precedent Studio: mass modeling, digital photography, digital

drawing, etc. Analytical thinking, communicating ideas,..

- Component Design (family member modeling; develops advanced

skills that prevent „standardization” of design)

- Studio (full fledge design, all skills trained)

Brown N.C., Peña R., Teaching BIM: Best Practices for Integrating BIM into Architectural Curriculum?”, AU 2009

(37)

Teaching BIM

 US universities offering BIM programs (after: Barison,

(38)

Teaching BIM

 Integrated courses on US univ. (Becerik-Gerber B.,

(39)

Teaching BIM

 Integrated courses [Becerik-Gerber B., Gerber J., Ku K,

(40)

Teaching BIM

 Integrated teaching

 Requires multi-stage approach:

 Separate initial training for disciplines (architecture, structural engineering, comstruction management, etc.)

 Developing analytical skills (intermediate level)

 Developing communication skills, team work (intermediate level)

 Collaborative studios/projects at the advanced level

 The third stage is the hardest:

 Requires cooperation on the inter-institute level

 It’s harder to schedule it across faculties  It’s harder to credit it with ECTS

 May call for evening classes/meetings

(41)

Teaching BIM

 Integrated teaching requires greater diversity of class

types:

 Required classes

 Electives

 Out-of-curriculem training courses (paid extra by students)

 Post-graduate programs

(42)

Teaching BIM

 Integrated courses – course structures [Becerik-Gerber

(43)

Teaching BIM.

CUT perspectives

 BIM courses are offered on Faculties of:

 Architecture (mainly ArchiCAD, Revit, 3DSMax Design)

 Civil Engineering (Revit, ROBOT, <Tekla - new>, Civil3D,

Zuzia-BIM, Naviswork, Software tools for group work)

 Environmental Engineering (Civil3D, ROBOT)

 Courses for professionals in Revit Architecture/Structure

(EU POKL funds used)

(44)

Teaching BIM.

CUT perspectives

Students are offered additional training/certification, mainly through CUT’s Autodesk Software Competence Center initiative

(45)

Teaching BIM.

CUT perspectives

 Autodesk Software Competence Center at the CUT (CKA

PK)

 Established in 2010, in parallel to signing strategic partnership with Autodesk, manily by wide student demand

 It is formally not a division of the CUT

 Three entities formed the CKA PK:

 CUT

 Biś Computers  Robobat Polska

(Biś Computers and Robobat Polska are Autodesk Partners and Authorized Training Centers)

(46)

Teaching BIM.

CUT perspectives

 Mission of the CKA PK

- To promote proficiency in the newest Autodesk engineering software

among students and academic staff

- To offer students/staff training and certification for substantially

reduced cost

- To leverage the overall quality of teaching programs to meet the

requirements of authorized training

- To animate changes towards broader use of the newest 3D modeling

technologies, including BIM

- To offer one-stop place for post-graduate training/continuing

(47)

Teaching BIM.

CUT perspectives

 Adavantages the CKA PK brings on the campus

 Students can get certificates for a fractional cost (courses taught at CUT are counted towards the required amont of authorized training

 Students are offered additional courses, all at the campus

 CUT was a host to Autodesk Open Doors Day twice, many students and employees passed the Autodesk Certified Professional exams totally for free

 Students engage in many activities, they form group by themselves for auxiliary training,

 We started Student Expert Program, several students are really active (and supportive) in teaching/training, preparing materials, etc.

(48)

Teaching BIM.

CUT perspectives

 Adavantages the CKA PK brings on the campus – cont’d.

 ATC certificates: - Voluntary - 30h standard course, 10h additional training - Paid by student themselves - 424 altogether

(49)

Teaching BIM.

CUT perspectives

 Adavantages the CKA PK brings on the campus – cont’d.

 ATC certificates:

- Voluntary

- Majority for free

- Higher than average pass ratio (the best results 73%, ca. 36% world average

- 234 certyficates issued

- 658 ATC/ACA/ACP certificates issued

(50)

Conclusions

 BIM is a business process, BIM education has to be a well

thought out educational process that teaches and mimics the „Big BIM” processes

According to Becerik-Gerber B., Gerber J., Ku K, 2011

findings, 55% US universities do not offer BIM training because there is no teacher. What that percentage be in Poland?

 Let us take advantage of every single chance to „BIMprove”

our teaching programs, infuse BIM into the classic subjects (like introduction to civil/structural engineering, mechanics of structures, structural dynamics, other)

(51)

Conclusions

 We have to show BIM in its broad contexts. We should

navigate towards integrated teaching strategies that inlcude coordinated instruction for different programs (architecture, construction, MEP, management, operation) and

collaborative phase on the studio level

We should offer electives; they have (often undermined) an

extreme potential in (self-)forming professional development (T-shape personalities)

 The European funds can be used to develop and offer new

courses/programs; the possibility to test them in the post-graduate courses is a wonderful opportunity

(52)

Conclusions

 We shoulg explore the enthusiasm and creativity of students

and let them take more control over their professional

development; our experience with enormous activity of so many students in the University’s Autodesk Software

Competence Center shows the potential of community-based and community-oriented initiatives.

(53)

BIM

IT’S TIME FOR

COMMUNITY ORIENTED, COMMUNITY BASED

References

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