The award-winning Museum of Scottish Country Life has opened in East Kilbride, attracting visitors. It features a historic working farm with farmhouse, buildings, and land. The museum was a collaboration between the National Museums of Scotland and the National Trust for Scotland. It houses collections on country life and from the Reid family. The new exhibition building uses passive design to maintain stable temperatures and humidity without excessive energy use.
This document provides an overview of an enclosure design training presentation focused on low energy buildings. The presentation covers definitions of key terms, the five critical barriers in enclosure design including the thermal and air barriers, approaches to designing continuous barriers, and details of enclosure assemblies. It emphasizes the importance of continuity, airtightness, insulation, and coordination between building systems in achieving energy efficiency and durability. Case studies are presented on high performance building enclosures and MEP designs.
Hereford Archive and Records Centre (HARC) is the first Certified Passivhaus Archive building in the UK and only the second in the world. The building was designed by Architects Architype and constructed by Kier Construction. This presentation describes some of the lessons learnt and presents monitoring data from the first year of operation.
This document discusses strategies for designing an environmentally sustainable tasting room building with a focus on passive house principles and the Living Building Challenge. It outlines an approach that minimizes energy loads through high insulation and air tightness, uses efficient mechanical systems, and aims to meet remaining energy needs through renewable sources. Key aspects include designing deep wall and roof assemblies, addressing thermal bridging and air leakage during construction, and selecting materials without red list chemicals and with low embodied carbon and responsible sourcing. The goals are to achieve major energy savings, health, comfort, durability and resiliency through this design approach and material selection process.
Building Enclosures of the Future - Building Tomorrow's Buildings TodayRDH Building Science
- Trends and Drivers for Improved Building Enclosures & Whole Building Energy Efficiency
- New BCBC & VBBL Building & Energy Code Updates
- Effective R-values & Insulation Behaviour
- Highly Insulated Walls – Alternate Assemblies & New Cladding Attachment Strategies
- Highly Insulated Low-Slope Roofs – Insulation Strategies & New Research into Conventional Roofs
Christy Love, EIT LEED AP BD+C, is a Senior Project Engineer at RDH Building Science. This presentation was given at the 2016 Passive House Northwest Conference.
The North Park Passive House, a 6-unit strata project located in Victoria BC, was occupied in September 2015. It is the first market strata-title certified Passive House development in Canada.
While well-established elsewhere, the potential benefits of Passive House and other low energy design approaches are not as well understood in Canada, and there are limited data on the actual performance of low energy residential buildings in various Canadian climates.
To address this gap, RDH, in partnership with the Canadian Mortgage and Housing Corporation, the Homeowner Protection Office of BC Housing, and FP Innovations, is undertaking detailed quantitative and qualitative performance measurement of the North Park Passive House. The intent of this research is to develop a comprehensive case study for a Passive House project in the coastal BC climate.
Learning Objectives:
- Understand the scope of the research and what we hope to learn from it.
- Understand preliminary results about how the building is performing in terms of comfort, air quality, and energy use, via measured data collected within select suites and qualitative interviews with occupants.
- Understand and interpret preliminary results of how the building enclosure is performing.
- Learn tips and share lessons learned about undertaking this type of research.
Aesthetics in a High-Performing Building How Beauty Blends with Energy Savingsenergytrustor
The document provides details about the construction of a new building for the Unitarian Universalist Fellowship of Central Oregon. It summarizes the construction process which focused on sustainability and minimizing environmental impact. Key aspects included protecting existing trees, using forms to pour concrete mass walls, installing a PEX radiant floor heating system, erecting a wood frame, adding masonry walls representing local rock, and installing high performance windows, roofing, and insulation. Commissioning validated that mechanical, electrical, and plumbing systems were operating efficiently as designed. The construction aimed to exemplify the Unitarian Universalist principles of environmental stewardship.
Within Interreg project CAMS Platform Ltd. EKODOMA has done research on "Climate Change Adaptation and Mitigation: Practice and Opportunities in Energy Efficiency and Renovation of Buildings in Latvia". Based on the analysis carried out, policy recommendations on planning state support mechanisms and the European structural and investment funds throughout 2021 to 2027, as well as for recommendations on the national guidelines regarding further projects of energy efficiency in renovation and building were developed. The main risks for each of the recommendations have been identified in the authors' view as well.
This document provides information about Professor Dimitrios Bikas of Aristotle University of Thessaloniki. It lists his teaching subjects, research areas, and involvement in international programs related to sustainable building and construction. It also summarizes a case study of the Kilkis Public Administration Building, which was designed using bioclimatic principles to minimize energy consumption through passive solar systems. Metrics show its performance in areas like indoor environmental quality, resource consumption, and environmental impact.
This document provides an overview of an enclosure design training presentation focused on low energy buildings. The presentation covers definitions of key terms, the five critical barriers in enclosure design including the thermal and air barriers, approaches to designing continuous barriers, and details of enclosure assemblies. It emphasizes the importance of continuity, airtightness, insulation, and coordination between building systems in achieving energy efficiency and durability. Case studies are presented on high performance building enclosures and MEP designs.
Hereford Archive and Records Centre (HARC) is the first Certified Passivhaus Archive building in the UK and only the second in the world. The building was designed by Architects Architype and constructed by Kier Construction. This presentation describes some of the lessons learnt and presents monitoring data from the first year of operation.
This document discusses strategies for designing an environmentally sustainable tasting room building with a focus on passive house principles and the Living Building Challenge. It outlines an approach that minimizes energy loads through high insulation and air tightness, uses efficient mechanical systems, and aims to meet remaining energy needs through renewable sources. Key aspects include designing deep wall and roof assemblies, addressing thermal bridging and air leakage during construction, and selecting materials without red list chemicals and with low embodied carbon and responsible sourcing. The goals are to achieve major energy savings, health, comfort, durability and resiliency through this design approach and material selection process.
Building Enclosures of the Future - Building Tomorrow's Buildings TodayRDH Building Science
- Trends and Drivers for Improved Building Enclosures & Whole Building Energy Efficiency
- New BCBC & VBBL Building & Energy Code Updates
- Effective R-values & Insulation Behaviour
- Highly Insulated Walls – Alternate Assemblies & New Cladding Attachment Strategies
- Highly Insulated Low-Slope Roofs – Insulation Strategies & New Research into Conventional Roofs
Christy Love, EIT LEED AP BD+C, is a Senior Project Engineer at RDH Building Science. This presentation was given at the 2016 Passive House Northwest Conference.
The North Park Passive House, a 6-unit strata project located in Victoria BC, was occupied in September 2015. It is the first market strata-title certified Passive House development in Canada.
While well-established elsewhere, the potential benefits of Passive House and other low energy design approaches are not as well understood in Canada, and there are limited data on the actual performance of low energy residential buildings in various Canadian climates.
To address this gap, RDH, in partnership with the Canadian Mortgage and Housing Corporation, the Homeowner Protection Office of BC Housing, and FP Innovations, is undertaking detailed quantitative and qualitative performance measurement of the North Park Passive House. The intent of this research is to develop a comprehensive case study for a Passive House project in the coastal BC climate.
Learning Objectives:
- Understand the scope of the research and what we hope to learn from it.
- Understand preliminary results about how the building is performing in terms of comfort, air quality, and energy use, via measured data collected within select suites and qualitative interviews with occupants.
- Understand and interpret preliminary results of how the building enclosure is performing.
- Learn tips and share lessons learned about undertaking this type of research.
Aesthetics in a High-Performing Building How Beauty Blends with Energy Savingsenergytrustor
The document provides details about the construction of a new building for the Unitarian Universalist Fellowship of Central Oregon. It summarizes the construction process which focused on sustainability and minimizing environmental impact. Key aspects included protecting existing trees, using forms to pour concrete mass walls, installing a PEX radiant floor heating system, erecting a wood frame, adding masonry walls representing local rock, and installing high performance windows, roofing, and insulation. Commissioning validated that mechanical, electrical, and plumbing systems were operating efficiently as designed. The construction aimed to exemplify the Unitarian Universalist principles of environmental stewardship.
Within Interreg project CAMS Platform Ltd. EKODOMA has done research on "Climate Change Adaptation and Mitigation: Practice and Opportunities in Energy Efficiency and Renovation of Buildings in Latvia". Based on the analysis carried out, policy recommendations on planning state support mechanisms and the European structural and investment funds throughout 2021 to 2027, as well as for recommendations on the national guidelines regarding further projects of energy efficiency in renovation and building were developed. The main risks for each of the recommendations have been identified in the authors' view as well.
This document provides information about Professor Dimitrios Bikas of Aristotle University of Thessaloniki. It lists his teaching subjects, research areas, and involvement in international programs related to sustainable building and construction. It also summarizes a case study of the Kilkis Public Administration Building, which was designed using bioclimatic principles to minimize energy consumption through passive solar systems. Metrics show its performance in areas like indoor environmental quality, resource consumption, and environmental impact.
Efficient and Affordable: Applying the Passive House Standard to Low-income, ...energytrustor
This document provides details about the Orchards at Orenco affordable housing project in Oregon, which aimed to be the first certified Passive House apartments in the state. It discusses the owner's goals of providing affordable, healthy, and energy-efficient housing. It outlines the integrated design process used by the project team, including energy modeling. Key aspects covered include the building envelope design, window and door selections, lighting and appliances, HVAC design, and construction process. Actual energy performance data showed the building achieved over 50% savings compared to code.
This document provides an overview and agenda for an Energy Trust of Oregon envelope design training event held on October 2015. The training covered key topics related to building enclosure design including critical barriers like the thermal barrier, air barrier and vapor barrier. It discussed approaches to designing continuous barriers and managing issues like thermal bridging. Insulation strategies like interior, exterior and split insulation were also reviewed. The document aimed to educate designers on best practices for creating efficient, durable and low energy building enclosures.
The document discusses energy efficiency upgrades that can be made to heritage buildings in Vancouver. It provides details on Vancouver's goals to reduce energy consumption in homes by 33% by 2020. It then lists 12 ways to make a house more energy efficient, such as efficient lighting, insulation, and water heating. The document also discusses the benefits of upgrading heritage buildings, which include embodied energy retention and reducing thermal bridging. It provides a case study of Vancouver's efforts through its 2020 Greenest City Action Plan to address energy usage in the city's large number of heritage buildings.
A one day symposium on zero/low carbon sustainable homes took place at The University of Nottingham on the 24th October, 2012. The event offered professionals within the construction industry a unique opportunity to gain added and significant insight into the innovations, policies and legislation which are driving the construction of zero/low carbon energy efficient homes both here in the UK and elsewhere in Europe. It explored solutions to sustainability issues “beyond” the zero carbon agenda. BZCH followed on from the successful ‘Towards Zero Carbon Housing’ symposium the University hosted in 2007. This event is part of the Europe Wide Ten Act10n project which is supported by the European Commission Intelligent Energy Europe.
Interest in taller wood buildings utilizing cross laminated timber (CLT), nail laminated timber (NLT), and structural glued laminated timber (glulam) is growing rapidly in Canada and the United States. On the west coast, recently completed projects including the 97 foot tall, 6-story Wood Innovation and Design Center (WIDC) in Prince George, BC, the 180 foot tall, 18-story UBC Brock Commons Tallwood House in Vancouver, BC, and the upcoming 12-story Framework project in Portland, OR, have captured the attention of the international construction industry. Several other taller wood buildings are on the horizon and feasibility studies are currently being performed for mass timber buildings over 30 stories in height. Tall wood buildings have been a reality in Europe longer than North America, and there is much to learn from the European experience. However, conditions unique to the North American construction industry create many challenges for the design team in demonstrating the safety, durability, and economics of these buildings, all while forming public perception of wood at taller heights.
Presented at the 15th Canadian Conference on Building Science and Technology.
This lecture illustrates the opportunities for Passive House on commercial projects. Follow four case studies and learn how the Passive House building energy standard affects project planning, design, and what changes are made to the building envelope and mechanical systems to achieve it. Furthermore, this session highlights the differences in initial cost and life cycle cost, and provide insights into the energy conservation and CO2 reduction potential.
Intep & TE Studio designed the first certified Passive House in North America, as well as the first certified cold climate Passive House and the first certified cold climate Passive House retrofit (EnerPHit) in the world. Learn more at intep.com and testudio.com
The Marie Reed Modernization Project is renovating the Marie Reed Community Learning Center located in Adams Morgan, with a budget of $61.5 million. Work is currently underway on various floors, including installing new ceilings, flooring, electrical and mechanical systems. Roof work includes mechanical piping and elevator equipment installation. Foundation waterproofing and exterior facade cleaning are among ongoing site work. The project is scheduled for completion in Summer 2017.
This document provides an overview of passive house standards and principles. It begins by defining a passive house as a building that can maintain a comfortable interior climate without active heating and cooling through highly insulated building envelopes, airtight construction, and heat recovery ventilation. It then discusses key passive house targets for heating/cooling energy use, airtightness, and thermal comfort. Examples of certified passive house projects like offices, schools, and multifamily buildings are shown from Europe and Asia. The document outlines the key passive house principles of excellent insulation, eliminating thermal bridges, high-performance windows, and heat recovery ventilation. It also introduces the PHPP software tool used for passive house certification. Vancouver's progress toward passive house is noted
This document provides information on a proposed new residence designed to meet the Passive House standard. It will have an extremely energy efficient, airtight building envelope with high insulation values. It will use minimal energy for heating and cooling through strategic design including optimized solar orientation, compact shape, and an energy recovery ventilator. The project aims to achieve net-zero energy use through efficient systems and potential solar panels.
1) The document describes a case study of the GTower building in Kuala Lumpur, Malaysia. GTower implemented various passive design strategies to achieve Green Mark Gold certification from the Singapore Building and Construction Authority.
2) Key passive design elements included building orientation to the northeast to minimize solar heat gain, vertical gardens on the facade, and double glazed glass with low-emissivity coatings. These strategies helped reduce energy consumption and maintain a comfortable indoor temperature.
3) The case study analyzed climate data, sun path analysis, and wind patterns to inform the passive design strategies employed in the building's design.
1) The G Tower case study document discusses the passive design strategies used in the G Tower building in Kuala Lumpur, Malaysia. These strategies include building orientation, double glazing glass, vertical greenery, and more to reduce energy usage and improve indoor environmental quality.
2) Key passive design elements are building orientation adjusted to the northeast to minimize morning sun exposure, facade geometry subtraction, and use of double glazed low-emissivity glass to reduce heat transfer.
3) Additional sustainable features include rainwater harvesting, motion sensors, and green roofs to further reduce energy and water usage and improve indoor air quality.
This presentation gives an idea about the various types of intelligent envelopes used in the different types of buildings in different climatic conditions.
The document summarizes a unique building in Cornwall that combines headquarters and helicopter hangar facilities for the Cornwall Air Ambulance Trust (CAAT) in an eco-friendly design. Completed in 2012, the building uses materials like hemcrete walls and achieves an "Excellent" BREEAM rating. It provides efficient operating facilities for CAAT's air ambulance services while minimizing environmental impact through designs like compact footprint, passive solar features, and natural ventilation.
Bart Meehan: Sustainably Designed Buildings at the Australian National Univer...ISCN_Secretariat
The document summarizes the history of sustainably designed buildings at the Australian National University (ANU) from the mid-1990s to present day. It describes several buildings constructed at ANU that incorporated innovative passive design features to reduce energy and water usage and environmental impact, such as natural ventilation, rainwater harvesting, and solar power generation. These buildings showed that sustainably designed structures were no longer dependent on high energy costs, paving the way for modern green building movements.
Bioclimatic design at the site planning scaleKomal Arora
Bioclimatic design aims to create buildings and spaces that meet energy needs without harming the environment. It focuses on integrating architectural design with local climate conditions like sunlight, wind and vegetation. Key principles include considering the local weather, reducing energy usage, and using passive solar heating and natural ventilation. Examples of bioclimatic design techniques at the site planning scale include using landforms and plants for wind protection, shading, and directing summer breezes to naturally condition outdoor spaces and buildings.
Maersk Tower is a research building at the University of Copenhagen that prioritizes sustainability and energy efficiency. It collects rainwater, uses district cooling to lower energy consumption, has solar panels, exterior shutters to reduce sunlight, and LED lighting. Sustainability features were integrated into the design, like flexible laboratories, loop ventilation for low energy use, and bike facilities to encourage alternatives to cars. The building aims to support medical research while minimizing its environmental impact through various green initiatives.
Energy Efficient Social Housing for One Manchestermark alegbe
The document provides details about a social housing project in Manchester called Project 444. It begins with an introduction and overview of the project, which involves designing compact and energy efficient homes. It then examines case studies of previous sustainable social housing schemes. The remainder of the document outlines the site analysis, climate analysis, design development process, plans, energy analysis, materials and construction details, sustainability strategies and rendered views of the proposed development. The aim is to design homes that reduce operational carbon through efficient passive design strategies and use of renewable energy sources.
This document describes the S-HOUSE, a passive solar building constructed using renewable resources like straw bales. The S-HOUSE combines passive solar design principles with sustainable materials to serve as an office, demonstration building, and information center. Key innovations include the straw bale wall construction, specially designed screws to attach materials to the straw bales, and a biomass heat storage stove. Long-term monitoring of the building will provide performance data on the renewable materials to support broader adoption of sustainable construction practices.
Value Engineering: An Intersection of Economics, Engineering Design, and Arch...Armani Ferdaous
This presentation illustrates the various aspects of decision-making in engineering design in the stages prior to the construction bidding process for the renovation of DEP’s South Brooklyn headquarters on Remsen Avenue. It reveals components of the value engineering method through a comparative analysis of two different glass systems in consideration for the future renovation. The analysis initially demonstrates the cost estimation of both materials that will allow BWSO to construct a budget for the project, and it proceeds to reflect the performance of both systems through a comparison of wind loads to derive strength. Lastly, the presentation factors in architectural theory to examine the aesthetic value and social impact of construction materials in visual culture.
The document discusses the $43 million refurbishment of the Old Country Court building in Melbourne, Australia led by construction company Hansen Yuncken. The project involved a complete renovation of the existing 16-level building, including a new entry area, meeting rooms, and upgrades to infrastructure and plant rooms. Hansen Yuncken aimed to achieve a Five Green Star sustainability rating through measures like solar panels, special low-VOC paint, and a rainwater retention system. The refurbishment preserved parts of the original architecture while providing modern courtrooms and office spaces.
Cool roofs and pavements can significantly reduce energy consumption and costs for cooling buildings. Applying highly reflective materials to roofs and pavements decreases their surface temperatures, reducing the transfer of heat into buildings and the ambient air. Several pilot projects showed energy savings of up to 98% for cooling through the use of cool materials. Case studies in Greece and Jamaica demonstrated that cool roofs reduced surface temperatures by around 10°C and cooling energy demand by 17-22%. The materials provide a low-cost solution to improving thermal comfort and energy efficiency, especially in hot climates.
Efficient and Affordable: Applying the Passive House Standard to Low-income, ...energytrustor
This document provides details about the Orchards at Orenco affordable housing project in Oregon, which aimed to be the first certified Passive House apartments in the state. It discusses the owner's goals of providing affordable, healthy, and energy-efficient housing. It outlines the integrated design process used by the project team, including energy modeling. Key aspects covered include the building envelope design, window and door selections, lighting and appliances, HVAC design, and construction process. Actual energy performance data showed the building achieved over 50% savings compared to code.
This document provides an overview and agenda for an Energy Trust of Oregon envelope design training event held on October 2015. The training covered key topics related to building enclosure design including critical barriers like the thermal barrier, air barrier and vapor barrier. It discussed approaches to designing continuous barriers and managing issues like thermal bridging. Insulation strategies like interior, exterior and split insulation were also reviewed. The document aimed to educate designers on best practices for creating efficient, durable and low energy building enclosures.
The document discusses energy efficiency upgrades that can be made to heritage buildings in Vancouver. It provides details on Vancouver's goals to reduce energy consumption in homes by 33% by 2020. It then lists 12 ways to make a house more energy efficient, such as efficient lighting, insulation, and water heating. The document also discusses the benefits of upgrading heritage buildings, which include embodied energy retention and reducing thermal bridging. It provides a case study of Vancouver's efforts through its 2020 Greenest City Action Plan to address energy usage in the city's large number of heritage buildings.
A one day symposium on zero/low carbon sustainable homes took place at The University of Nottingham on the 24th October, 2012. The event offered professionals within the construction industry a unique opportunity to gain added and significant insight into the innovations, policies and legislation which are driving the construction of zero/low carbon energy efficient homes both here in the UK and elsewhere in Europe. It explored solutions to sustainability issues “beyond” the zero carbon agenda. BZCH followed on from the successful ‘Towards Zero Carbon Housing’ symposium the University hosted in 2007. This event is part of the Europe Wide Ten Act10n project which is supported by the European Commission Intelligent Energy Europe.
Interest in taller wood buildings utilizing cross laminated timber (CLT), nail laminated timber (NLT), and structural glued laminated timber (glulam) is growing rapidly in Canada and the United States. On the west coast, recently completed projects including the 97 foot tall, 6-story Wood Innovation and Design Center (WIDC) in Prince George, BC, the 180 foot tall, 18-story UBC Brock Commons Tallwood House in Vancouver, BC, and the upcoming 12-story Framework project in Portland, OR, have captured the attention of the international construction industry. Several other taller wood buildings are on the horizon and feasibility studies are currently being performed for mass timber buildings over 30 stories in height. Tall wood buildings have been a reality in Europe longer than North America, and there is much to learn from the European experience. However, conditions unique to the North American construction industry create many challenges for the design team in demonstrating the safety, durability, and economics of these buildings, all while forming public perception of wood at taller heights.
Presented at the 15th Canadian Conference on Building Science and Technology.
This lecture illustrates the opportunities for Passive House on commercial projects. Follow four case studies and learn how the Passive House building energy standard affects project planning, design, and what changes are made to the building envelope and mechanical systems to achieve it. Furthermore, this session highlights the differences in initial cost and life cycle cost, and provide insights into the energy conservation and CO2 reduction potential.
Intep & TE Studio designed the first certified Passive House in North America, as well as the first certified cold climate Passive House and the first certified cold climate Passive House retrofit (EnerPHit) in the world. Learn more at intep.com and testudio.com
The Marie Reed Modernization Project is renovating the Marie Reed Community Learning Center located in Adams Morgan, with a budget of $61.5 million. Work is currently underway on various floors, including installing new ceilings, flooring, electrical and mechanical systems. Roof work includes mechanical piping and elevator equipment installation. Foundation waterproofing and exterior facade cleaning are among ongoing site work. The project is scheduled for completion in Summer 2017.
This document provides an overview of passive house standards and principles. It begins by defining a passive house as a building that can maintain a comfortable interior climate without active heating and cooling through highly insulated building envelopes, airtight construction, and heat recovery ventilation. It then discusses key passive house targets for heating/cooling energy use, airtightness, and thermal comfort. Examples of certified passive house projects like offices, schools, and multifamily buildings are shown from Europe and Asia. The document outlines the key passive house principles of excellent insulation, eliminating thermal bridges, high-performance windows, and heat recovery ventilation. It also introduces the PHPP software tool used for passive house certification. Vancouver's progress toward passive house is noted
This document provides information on a proposed new residence designed to meet the Passive House standard. It will have an extremely energy efficient, airtight building envelope with high insulation values. It will use minimal energy for heating and cooling through strategic design including optimized solar orientation, compact shape, and an energy recovery ventilator. The project aims to achieve net-zero energy use through efficient systems and potential solar panels.
1) The document describes a case study of the GTower building in Kuala Lumpur, Malaysia. GTower implemented various passive design strategies to achieve Green Mark Gold certification from the Singapore Building and Construction Authority.
2) Key passive design elements included building orientation to the northeast to minimize solar heat gain, vertical gardens on the facade, and double glazed glass with low-emissivity coatings. These strategies helped reduce energy consumption and maintain a comfortable indoor temperature.
3) The case study analyzed climate data, sun path analysis, and wind patterns to inform the passive design strategies employed in the building's design.
1) The G Tower case study document discusses the passive design strategies used in the G Tower building in Kuala Lumpur, Malaysia. These strategies include building orientation, double glazing glass, vertical greenery, and more to reduce energy usage and improve indoor environmental quality.
2) Key passive design elements are building orientation adjusted to the northeast to minimize morning sun exposure, facade geometry subtraction, and use of double glazed low-emissivity glass to reduce heat transfer.
3) Additional sustainable features include rainwater harvesting, motion sensors, and green roofs to further reduce energy and water usage and improve indoor air quality.
This presentation gives an idea about the various types of intelligent envelopes used in the different types of buildings in different climatic conditions.
The document summarizes a unique building in Cornwall that combines headquarters and helicopter hangar facilities for the Cornwall Air Ambulance Trust (CAAT) in an eco-friendly design. Completed in 2012, the building uses materials like hemcrete walls and achieves an "Excellent" BREEAM rating. It provides efficient operating facilities for CAAT's air ambulance services while minimizing environmental impact through designs like compact footprint, passive solar features, and natural ventilation.
Bart Meehan: Sustainably Designed Buildings at the Australian National Univer...ISCN_Secretariat
The document summarizes the history of sustainably designed buildings at the Australian National University (ANU) from the mid-1990s to present day. It describes several buildings constructed at ANU that incorporated innovative passive design features to reduce energy and water usage and environmental impact, such as natural ventilation, rainwater harvesting, and solar power generation. These buildings showed that sustainably designed structures were no longer dependent on high energy costs, paving the way for modern green building movements.
Bioclimatic design at the site planning scaleKomal Arora
Bioclimatic design aims to create buildings and spaces that meet energy needs without harming the environment. It focuses on integrating architectural design with local climate conditions like sunlight, wind and vegetation. Key principles include considering the local weather, reducing energy usage, and using passive solar heating and natural ventilation. Examples of bioclimatic design techniques at the site planning scale include using landforms and plants for wind protection, shading, and directing summer breezes to naturally condition outdoor spaces and buildings.
Maersk Tower is a research building at the University of Copenhagen that prioritizes sustainability and energy efficiency. It collects rainwater, uses district cooling to lower energy consumption, has solar panels, exterior shutters to reduce sunlight, and LED lighting. Sustainability features were integrated into the design, like flexible laboratories, loop ventilation for low energy use, and bike facilities to encourage alternatives to cars. The building aims to support medical research while minimizing its environmental impact through various green initiatives.
Energy Efficient Social Housing for One Manchestermark alegbe
The document provides details about a social housing project in Manchester called Project 444. It begins with an introduction and overview of the project, which involves designing compact and energy efficient homes. It then examines case studies of previous sustainable social housing schemes. The remainder of the document outlines the site analysis, climate analysis, design development process, plans, energy analysis, materials and construction details, sustainability strategies and rendered views of the proposed development. The aim is to design homes that reduce operational carbon through efficient passive design strategies and use of renewable energy sources.
This document describes the S-HOUSE, a passive solar building constructed using renewable resources like straw bales. The S-HOUSE combines passive solar design principles with sustainable materials to serve as an office, demonstration building, and information center. Key innovations include the straw bale wall construction, specially designed screws to attach materials to the straw bales, and a biomass heat storage stove. Long-term monitoring of the building will provide performance data on the renewable materials to support broader adoption of sustainable construction practices.
Value Engineering: An Intersection of Economics, Engineering Design, and Arch...Armani Ferdaous
This presentation illustrates the various aspects of decision-making in engineering design in the stages prior to the construction bidding process for the renovation of DEP’s South Brooklyn headquarters on Remsen Avenue. It reveals components of the value engineering method through a comparative analysis of two different glass systems in consideration for the future renovation. The analysis initially demonstrates the cost estimation of both materials that will allow BWSO to construct a budget for the project, and it proceeds to reflect the performance of both systems through a comparison of wind loads to derive strength. Lastly, the presentation factors in architectural theory to examine the aesthetic value and social impact of construction materials in visual culture.
The document discusses the $43 million refurbishment of the Old Country Court building in Melbourne, Australia led by construction company Hansen Yuncken. The project involved a complete renovation of the existing 16-level building, including a new entry area, meeting rooms, and upgrades to infrastructure and plant rooms. Hansen Yuncken aimed to achieve a Five Green Star sustainability rating through measures like solar panels, special low-VOC paint, and a rainwater retention system. The refurbishment preserved parts of the original architecture while providing modern courtrooms and office spaces.
Cool roofs and pavements can significantly reduce energy consumption and costs for cooling buildings. Applying highly reflective materials to roofs and pavements decreases their surface temperatures, reducing the transfer of heat into buildings and the ambient air. Several pilot projects showed energy savings of up to 98% for cooling through the use of cool materials. Case studies in Greece and Jamaica demonstrated that cool roofs reduced surface temperatures by around 10°C and cooling energy demand by 17-22%. The materials provide a low-cost solution to improving thermal comfort and energy efficiency, especially in hot climates.
The role of_absorbent_building_materials_in_moderaErangaPrasad
This document discusses using absorbent building materials to moderate changes in indoor relative humidity. It presents an experimental climate chamber that controls water vapor flux instead of relative humidity. A variety of common building materials were tested for their ability to buffer indoor humidity, including brick, wood, earth, lime mortar and gypsum. The best performing materials were wood oriented with grain perpendicular to exposure and a specially developed bentonite/perlite mixture. Absorbent walls can effectively buffer daily and even annual humidity variations in low-exchange buildings like archives. Absorbent materials can also be combined with mechanical HVAC to provide simpler and more stable humidity control in buildings requiring ventilation, like museums.
This document summarizes the energy efficiency initiatives implemented at a new 50,000 sq ft supermarket in Manchester, UK called the Cheetham Hill Environmental Format Store (EFS). Key initiatives included a mixed-mode natural ventilation system using roof-mounted windcatchers, improved building fabric meeting building code requirements, dimmable lighting linked to daylight sensors, and doors added to chilled display cabinets to reduce cold air spillage. Computer modeling was used to evaluate the energy and carbon savings of these initiatives, finding the EFS design was expected to reduce the store's energy consumption and carbon emissions by 50% compared to a standard store design from 2006.
Recent Planning Experience in Balancing Collection and Building Preservation Needs: Improvements to the Mercer Museum
Presented at 1993 AIC Meeting in Denver
Ideahaus - a comfortable home for the UK's future climate-full paperSimon Owen FIRP
This document summarizes a project that developed design strategies to make housing in the UK more resilient to the impacts of climate change, such as flooding and overheating. It presented concept designs for an "IDEAhaus" building system that could be industrialized, customizable, efficient, and adaptable. The designs were meant to improve on current housing that suffers from overheating and flood damage. Thermal modeling showed that without changes, housing would experience significant overheating by 2030 and cooling demands would exceed heating demands by 2050 due to higher temperatures from climate change. The proposed IDEAhaus system used modular, standardized components that could be assembled in different configurations, along with passive cooling techniques, to provide more climate-resilient housing
Woods Bagot
Building services engineer: Umow Lai
Civil engineer: Arup
ESD consultant: Umow Lai
Fire engineer: Umow Lai
Landscape architect: Aspect Studios
Mechanical contractor: D&E Air Conditioning
Structural engineer: Arup
Project details
Location: Australian Catholic University,
Fitzroy, Melbourne
Client: Australian Catholic University
Cost: $75 million
Floor area: 20,000m2
Completion: 2013
Rating: 6 Star Green Star Design v1.1
Education
Case Studies that related to Solar Oriented Design Principles, environmental responsive, in tropical climate. It was done as a group assignment, thus credits go to my group members as well.
Embodied Energy Saved In Converted Industrial BuildingsMark1865
Rehabilitating old industrial buildings in Scotland saves embodied energy compared to demolishing them and building new structures. Existing buildings already have energy invested in their construction materials and can be adapted for new uses. Refurbishing buildings retains this embodied energy and avoids the energy costs of demolishing existing structures and bringing in new building materials. Whole life costing and life cycle assessments further demonstrate the energy savings of reusing and retrofitting historic buildings over new construction.
Monitoring and Managing Anomaly Detection on OpenShift.pdfTosin Akinosho
Monitoring and Managing Anomaly Detection on OpenShift
Overview
Dive into the world of anomaly detection on edge devices with our comprehensive hands-on tutorial. This SlideShare presentation will guide you through the entire process, from data collection and model training to edge deployment and real-time monitoring. Perfect for those looking to implement robust anomaly detection systems on resource-constrained IoT/edge devices.
Key Topics Covered
1. Introduction to Anomaly Detection
- Understand the fundamentals of anomaly detection and its importance in identifying unusual behavior or failures in systems.
2. Understanding Edge (IoT)
- Learn about edge computing and IoT, and how they enable real-time data processing and decision-making at the source.
3. What is ArgoCD?
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This video focuses on integration of Salesforce with Bonterra Impact Management.
Interested in deploying an integration with Salesforce for Bonterra Impact Management? Contact us at sales@sidekicksolutionsllc.com to discuss next steps.
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Lambda, Elastic Beanstalk, Lightsail, Amplify, S3 (and more!) can each host websites + APIs. But which one should we choose?
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5th LF Energy Power Grid Model Meet-up SlidesDanBrown980551
5th Power Grid Model Meet-up
It is with great pleasure that we extend to you an invitation to the 5th Power Grid Model Meet-up, scheduled for 6th June 2024. This event will adopt a hybrid format, allowing participants to join us either through an online Mircosoft Teams session or in person at TU/e located at Den Dolech 2, Eindhoven, Netherlands. The meet-up will be hosted by Eindhoven University of Technology (TU/e), a research university specializing in engineering science & technology.
Power Grid Model
The global energy transition is placing new and unprecedented demands on Distribution System Operators (DSOs). Alongside upgrades to grid capacity, processes such as digitization, capacity optimization, and congestion management are becoming vital for delivering reliable services.
Power Grid Model is an open source project from Linux Foundation Energy and provides a calculation engine that is increasingly essential for DSOs. It offers a standards-based foundation enabling real-time power systems analysis, simulations of electrical power grids, and sophisticated what-if analysis. In addition, it enables in-depth studies and analysis of the electrical power grid’s behavior and performance. This comprehensive model incorporates essential factors such as power generation capacity, electrical losses, voltage levels, power flows, and system stability.
Power Grid Model is currently being applied in a wide variety of use cases, including grid planning, expansion, reliability, and congestion studies. It can also help in analyzing the impact of renewable energy integration, assessing the effects of disturbances or faults, and developing strategies for grid control and optimization.
What to expect
For the upcoming meetup we are organizing, we have an exciting lineup of activities planned:
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Wir erklären Ihnen, wie Sie häufige Konfigurationsprobleme lösen können, die dazu führen können, dass mehr Benutzer gezählt werden als nötig, und wie Sie überflüssige oder ungenutzte Konten identifizieren und entfernen können, um Geld zu sparen. Es gibt auch einige Ansätze, die zu unnötigen Ausgaben führen können, z. B. wenn ein Personendokument anstelle eines Mail-Ins für geteilte Mailboxen verwendet wird. Wir zeigen Ihnen solche Fälle und deren Lösungen. Und natürlich erklären wir Ihnen das neue Lizenzmodell.
Nehmen Sie an diesem Webinar teil, bei dem HCL-Ambassador Marc Thomas und Gastredner Franz Walder Ihnen diese neue Welt näherbringen. Es vermittelt Ihnen die Tools und das Know-how, um den Überblick zu bewahren. Sie werden in der Lage sein, Ihre Kosten durch eine optimierte Domino-Konfiguration zu reduzieren und auch in Zukunft gering zu halten.
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The narrative then shifts to a captivating exploration of prominent desktop OSs, Windows, macOS, and Linux. Windows, with its globally ubiquitous presence and user-friendly interface, emerges as a cornerstone in personal computing history. macOS, lauded for its sleek design and seamless integration with Apple's ecosystem, stands as a beacon of stability and creativity. Linux, an open-source marvel, offers unparalleled flexibility and security, revolutionizing the computing landscape. 🖥️
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Are you ready to revolutionize how you handle data? Join us for a webinar where we’ll bring you up to speed with the latest advancements in Generative AI technology and discover how leveraging FME with tools from giants like Google Gemini, Amazon, and Microsoft OpenAI can supercharge your workflow efficiency.
During the hour, we’ll take you through:
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We’ll wrap up with a live Q&A session where you can engage with our experts on your specific use cases, and learn more about optimizing your data workflows with AI.
This webinar is ideal for professionals seeking to harness the power of AI within their data management systems while ensuring high levels of customization and security. Whether you're a novice or an expert, gain actionable insights and strategies to elevate your data processes. Join us to see how FME and AI can revolutionize how you work with data!
Letter and Document Automation for Bonterra Impact Management (fka Social Sol...Jeffrey Haguewood
Sidekick Solutions uses Bonterra Impact Management (fka Social Solutions Apricot) and automation solutions to integrate data for business workflows.
We believe integration and automation are essential to user experience and the promise of efficient work through technology. Automation is the critical ingredient to realizing that full vision. We develop integration products and services for Bonterra Case Management software to support the deployment of automations for a variety of use cases.
This video focuses on automated letter generation for Bonterra Impact Management using Google Workspace or Microsoft 365.
Interested in deploying letter generation automations for Bonterra Impact Management? Contact us at sales@sidekicksolutionsllc.com to discuss next steps.
Skybuffer AI: Advanced Conversational and Generative AI Solution on SAP Busin...Tatiana Kojar
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In the rapidly evolving landscape of technologies, XML continues to play a vital role in structuring, storing, and transporting data across diverse systems. The recent advancements in artificial intelligence (AI) present new methodologies for enhancing XML development workflows, introducing efficiency, automation, and intelligent capabilities. This presentation will outline the scope and perspective of utilizing AI in XML development. The potential benefits and the possible pitfalls will be highlighted, providing a balanced view of the subject.
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The presentation aims to deliver a comprehensive overview of AI usage in XML development, providing attendees with the necessary knowledge to make informed decisions. Whether you’re at the early stages of adopting AI or considering integrating it in advanced XML development, this presentation will cover all levels of expertise.
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Read Taking AI to the Next Level in Manufacturing to gain insights on AI adoption in the manufacturing industry, such as:
1. How quickly AI is being implemented in manufacturing.
2. Which barriers stand in the way of AI adoption.
3. How data quality and governance form the backbone of AI.
4. Organizational processes and structures that may inhibit effective AI adoption.
6. Ideas and approaches to help build your organization's AI strategy.
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Papyrus Summer 2002
1. The award-winning Museum of Scottish Country Life in
East Kilbride is now open and attracting visitors in encour-
aging numbers. The facility gives visitors a rare opportunity
to visit a historic working farm comprising Farmhouse,
Steading and 180 acres of land, including an events area
and a new Exhibition Building. The Museum is the result
of a unique collaboration between the National Museums
of Scotland (NMS) and the National Trust for Scotland (NTS),
and is home to the National Country Life Collection, as well
as the NTS collection from the Reid family of Kittochside.
The completed exhibition building is the result of an
innovative harmonization of client thinking, architectural form
and environmental engineering. From the outset, the NMS
recognized that the costs of running a fully air-conditioned
building, in order to meet the environmental requirements
laid down in current guidelines, would be prohibitive.
Both Page & Park, the architects, and Harley Haddow
Partnership, the M&E consulting engineers, embraced the
project brief and began to work together with the NMS
to design a building which would combine architectural
inspiration with environmental function.
The first task was to conduct research on the existing
environmental guidelines. Research on conservation conditions
for museum objects is by no means conclusive, and opinions
on these standards differ around the world. To complicate
matters, it soon became clear that the temperature and
humidity values required in order to reduce the deterioration
of objects also vary considerably for different materials. Inter-
preting all of the current research on the subject indicated
that there was no single environment which would provide
“satisfactory conditions” for all materials. The most widely
referred-to guideline in the U.K. is BS5454:2000, which is
PAPYRUSVOLUME 3 SUMMER
NUMBER 3 2002
continued on page 2
Grand Prix Winner for Architecture in
Scottish Design Awards 2002
Engineering the Sustainable Museum Environment at the
Museum of Scottish Country Life
by Alastair Cunningham and Chris Mclaren
INSIDE
Letter from the President . . 4
Regional Chapters —
September 11 . . . . . . . . . 6
Pull-Out Members
Directory . . . . . . . . . . . . 9
Installations at the
Guggenheim Bilbao . . . 13
Facilities Maintenance
Software . . . . . . . . . . . . . 16
Best Practices . . . . . . . . . . 19
From the Editor's Desk . . 20The new Museum of Scottish Country Life in East Kilbride, just outside of Glasgow, is situated
at the edge of an urban area, and conducts the visitor towards the land and the countryside.
I N T E R N A T I O N A L A S S O C I A T I O N O F M U S E U M F A C I L I T Y A D M I N I S T R A T O R S
2. 2
for archived documents. This guideline
notes environmental values of 21˚C
and 50% RH as optimal conditions.
It could have been assumed that
the Country Life collection is primarily
comprised of robust objects used in
rugged agricultural environments.
However, there are also many objects
which combine disparate materials such
as metal, leather and wood, and each
of these would require different conser-
vation conditions. Further research
indicated that the effects of temperature
and humidity changes are more prob-
lematic than absolute values maintained
within limits — even if those values
aren’t optimal. Discussion with the NMS
Conservation Department resulted in a
pragmatic brief, which required stable
conditions within a temperature and
humidity band of 15˚C to 25˚C and 45%
to 60% RH. Importantly, the brief noted
the maximum rate of change of temp-
erature as 4˚C in 12 hours and 2˚C in
one hour. The humidity rate of change
was 10% in 12 hours and 6% in 3 hours.
The architecture of the building
evolved to accommodate its function,
resulting in a heavy mass construction
with the mass exposed internally. The
building’s fenestration includes the main
glazed elements on the north side to
minimize solar gain. The ratio of public
areas, accessible storage and closed
storage meant that the internal influ-
ences within the building as a whole
were minimized.
The internal spaces are generally
large and spacious, with high ceilings.
Most spaces do not have suspended
ceilings, and the exposed concrete
finishes help to stabilize the temperature
in the space by absorbing and releasing
moisture and heat. One result of the
building’s form and function is that the
influences of internal temperature and
humidity gains are negligible, and the
opportunity for utilizing the ambient
conditions to maintain the designed
environment is greater than it would be
with a lightweight construction which
utilizes insulating internal finishes.
The ethos of the environmental
services design was to utilize modular
plant arrangements, which followed
the natural occupancy and physical
building zoning. This resulted in a
proposal to install 10 small air hand-
ling units (AHUs) to serve the various
distinct zones of the building. Attention
to detail was important in sealing the
fabric between zones, as well as in
the outer envelope.
A large-scale computational fluid
dynamic (CFD) study of the building
was undertaken to assess and refine
the ventilation proposals. The computer
model took into account all the physical
properties of the building. The model-
ling included a full simulation of a
“weather year” and also analyzed the
individual zones for the peak design
days, to assess the rate of change in
humidity and temperature over time.
The CFD model predicted that, by
utilizing the chimney structure and
an exposed concrete labyrinth in
the common intake duct, up to 2˚C
additional cooling could be gained.
Each of the ventilation installations is
configured to serve areas of the building
with similar gains and uses. Internal
stores are served from a common sys-
tem, whereas stores with external walls,
or on the same elevation of the building,
are served from another system. The
aim of the ventilation configuration
philosophy is to create the most envi-
ronmentally stable spaces possible.
A fully integrated Building Manage-
ment System is installed in the building,
with temperature and humidity sensors
in all stores. The stores have air-quality
sensors which detect CO2 levels. These
The Museum of Scottish Country Life is also a working farm.
Another view of the Museum building. Air handling units in the Museum’s plant.
Scottish Design Awards — continued
from page 1
3. 3
sensors override any thermal controls
if the internal air quality requires the
introduction of fresh air. The environ-
mental control strategy reverts only
when air quality is satisfied, and
switches the ventilation on only if the
conditions for doing so are satisfied.
The ventilation plant is controlled
using algorithms that sense the rate and
direction of changes in room conditions
within the required range. The controls
then use the available plant and/or
ambient conditions to bring the room’s
condition back to acceptable levels. The
controls installation ensures that there
is no plant intervention until the room
condition is beyond the required range,
and then only if plant operation is able
to adjust the conditions back appropriate
levels. The environmental building
control philosophy is based on no plant
activity if the conditions are satisfied,
and minimal plant activity only if
required on a zone-by-zone basis.
The Museum has now been in oper-
ation for a number of months, and
conditions in the stores have been
regularly monitored. The temperature
and humidity profiles indicate that
conditions in the stores remain stable
even when the ambient conditions
vary considerably from day to night,
and also as the weather changes over
days and weeks. It has been noted that,
in the first few months of operation,
the AHU installations remained off for
significant periods, due to the inherent
passive thermal stability of the building.
Running costs are currently being
calculated, based on the data received to
date. It is anticipated that the running
costs will be a fraction of those for a
“conventional” museum or gallery
building.
By adopting the approach described,
the National Museums of Scotland are
taking a farsighted approach to the
problem of storing artifacts in a manner
that will reduce their degradation, while
ensuring that the plant will be able to
run without incurring unsustainable
running costs.
Alastair Cunningham is Project Devel-
opment Manager for the National
Museums of Scotland. He has over
25 years’ experience in the fields of
architecture, construction, procurement
and delivery. In his past 12 years with
the NMS, he has been involved in the
delivery of major projects and has been
involved in the areas of collection storage
and accessible storage, as well as more
pragmatic aspects of environmental
controls. Chris Mclaren, consulting M&E
engineer, also contributed to this piece.
Looking out towards the main entrance of the Museum.
The display cases in the exhibition courtyard area feature
a variety of agricultural tools. The cases themselves have
been designed as “trailers” which can be joined up and
towed away. This in turn creates a functional rental
venue, which generates revenue for the facility.
External Ambient Conditions October 2001.
Internal Space Conditions October 2001.
4. 4
Very little time seems to have passed
since I last sat down to write to you
all. Despite this, things have continued
to progress, and there are a number of
developments to report.
The Board met in Amsterdam over
the weekend of April 12 to 14, and we
were generously entertained by Jan
Abrahamse at the Rijksmuseum and
Jan Kruls at the Van Gogh Museum. Staff
at both museums were wonderfully
helpful and friendly, and I would like
to thank them once again on behalf of
the Board for their hospitality. As ever,
we had a full agenda, and spent the
whole of Saturday in discussion in a
beautiful gothic chapel in the heart of
the Rijksmuseum.
Reports from Board members con-
firmed that as an organization we are
in reasonable health. Bill Caddick was
able to confirm that our finances are
stable, and that membership take-up
has been good, although we are missing
a few familiar names whom we hope
have just been slow in signing up. As
an inducement to encourage early pay-
ment, we have decided to charge a late
fee of $25 for inclusion in the annual
Directory that is published.
Pierre Lepage has done a great job
with our Papyrus newsletter, and I hope
that you have all now received three
new editions full of relevant articles. I
can testify to his vigour as I fend of his
demands for copy by the agreed dead-
line — he is not one to be deflected or
to let things slide! It is certainly worth
it, however: I have used the recent
editions as marketing material, and
they have obviously impressed both
potential members and likely sponsors.
On the administrative side, Marla
Chanin-Tobar has agreed to push
forward a new handbook, detailing job
descriptions for the Board, and generally
clarifying procedures set out in our
by-laws. The intention is to create a
handbook that will form a sort of cor-
porate memory, guiding future Boards
— although it remains open, as ever,
to adaptation and development as we
grow. The Board also discussed the
vacancies that will be open to the mem-
bership in September; these will be the
posts of President and Vice-President
of Administration, and I would like to
formally ask for any nominations to
these posts prior to the London con-
ference. We will, of course, have a
ballot at the business meeting, and I
will remind you all again when you
arrive in London.
All of which leads me to the London
conference and arrangements to date.
The organizing committee has finalized
venues and themes for the three days,
and we are now concentrating on details.
I hope that the programme for both
the conference and spouses will be up
on our Web site by the time you read
this, so check it out at www.iamfa.org.
I urge you to make an early booking
— if we run out of rooms, it will be
extremely difficult to find more in the
centre of London close to the event.
It comes as a blow to the committee
and the organization as a whole that
Karen Plouviez has been offered a job
in the education sector, and is leaving
the British Library. In a relatively short
period, she has had a big impact on
IAMFA affairs in the United Kingdom,
and her leadership has set the London
conference on course to being another
great event. I can only say thank you
and best wishes from us all. We have
also had confirmation from Joe Brennan
that San Francisco will be hosting
the event in 2003, again probably in
September. We will ask him to give
us more details in London.
I have recently corresponded with
Vinny Magorrian, who tells me that his
health problems have meant that he is
leaving MoMA. He would be delighted
to hear from his friends within the orga-
nization, and if you e-mail me, I will
pass on messages or put you in touch.
He has a vast resource of experience
and may be a fruitful contact for
anyone with an operational problem.
Vinny was a founding member of this
organization, and is someone I have
often turned to for advice. His short
history of the organization was distrib-
uted at the Chicago conference, and is
part of an archive we should not lose.
I hope we will be able to find a way
for past members to continue to partic-
ipate within the organization, perhaps
with some form of retired membership
category. I wish him well for the future,
and look forward to seeing him at
future IAMFA events.
I look forward to seeing you in
London — and please confirm your
booking as soon as possible to make
life easier for those organizing venues,
meals and trips!
All the best,
Peter Fotheringham
National Gallery, London
June 2002
Letter from the President
IAMFA
President,
Peter
Fotheringham
6. 6
For months, there were reports that
September 11, 2001 would be a momen-
tous day in New York City history. Term
limits were in effect, and almost every
city government official was slated to
leave his or her position. It was an
unseasonably warm and sunny day. I
thought that I should vote early, before
the long lines formed. I drove my
youngest daughter to school and
headed to my polling site, when I heard
the news flash that an airplane had just
hit the World Trade Center. I imagined
it was the result of a misguided or
malfunctioning plane that must have
hit the antenna on one of the towers,
and that damage would be minimal.
The early reports were sketchy and
unconfirmed. I was in Brooklyn, where
I could see smoke trailing from the
tower. I parked my vehicle and watched
in disbelief. I could see that the tower
had actually been hit on one of the
upper floors, and not at the antenna
as I’d imagined. The magnitude of this
tragedy was just beginning to set in
when I witnessed the second plane hit.
It was like watching a movie, until a
radio announcer said the Pentagon had
also been hit and that another plane,
although unconfirmed, was headed
off-course towards the White House.
I looked and I listened for what
seemed to be forever, and asked myself
how all these incidents could be coin-
cidental. My military, security and anti-
terrorism training forced me to shake off
the shock of it and acknowledge that
America was under attack. I knew that
I would be activated and had to report
for military duty. It was time to act!
Not knowing what would happen
next, priority dictated that I secure my
family. I called my wife at work to
inform her of what was happening, and
to let her know how much I loved her.
She in turn was concerned about our
three children. I assured her that I would
get them all safely home, and that every-
thing would be all right. I knew I had
just made a promise that only God
could keep, so I began to pray.
As the First Sergeant of C. Co 204th
Engineers New York Army National
Guard, I next contacted my commander,
who was also monitoring the disaster
from work. We planned to stay tuned
and stand by for orders from the
Governor.
My next call was to the Brooklyn
Children’s Museum, where I have
worked in Operations and Security
for over 10 years. We were fortunate
that the hundreds of schoolchildren
we serve on weekdays were not at the
Museum on September 11, 2001. The
Museum is closed to the public on
Tuesdays, and the security supervisors
on duty reported that all was secure,
and that they were in the process of
implementing the Museum’s disaster
plan. Our plan has been in place for
many years, and we had had mock
evacuations and response tests in the
recent past. The plan’s directives are
to ensure:
• Safety of our staff and visitors.
• Safety of our collection.
• Protection of the facility.
Every bag and package was
inspected, and a head count was
taken of everyone entering or exiting
the building. Although it wasn’t
mandated, some staff began to leave
work spontaneously to be with their
families. There is an elementary school
next door to the Museum, and dedi-
cated staff members went to help
comfort the children waiting to be
picked up by their parents.
On Duty at Ground Zero
As expected, the Governor activated my
unit that day. There were thousands
of volunteers and neighbours who
lined the streets, cheering and wel-
coming us to the area. It was a moving
experience. Uncertainty, chaos, despair
and pandemonium are words that
describe my feelings as we secured
our sector of responsibility, providing
security at Ground Zero within the
first few days of the disaster. With the
level of devastation surrounding the
area, the site was like something out
of a war movie.
Regional Chapters
It Began Just Like any Ordinary Day —
A Museum Facility Manager’s View of
September 11
Lloyd O. Headley
by Lloyd O. Headley
7. 7
During that time, three things
brought calm and consolation to
my mind, body and soul:
• First was my constant prayer for the
people trapped under the rubble,
the people who lost their lives,
their families, and the many lives
that were spared.
• Second, knowing that I was pro-
viding a needed service to help
others.
• Lastly, watching the many agencies
work tirelessly around the clock to
save lives, guard facilities and give
help so generously.
Creating a “Safe Zone”
I returned to work at the Brooklyn
Children’s Museum on Tuesday
September 25, 2001, after working
twelve-hour shifts at Ground Zero for
fourteen days. The monthly all-staff
meeting was very informative, and
served as a way to bond and keep
staff updated of changes and issues
we needed to address following
September 11.
I listened to the supervisors of the
Security and Facilities Departments as
they reported on the safety and deter-
rent measures we had implemented:
• Barriers on the exterior of the
building to prohibit individuals
from parking close to the exits
or entrance of the building.
• Checking all staff and visitors bags/
packages (including school classes)
at the front entrance, prior to their
entering the facility.
• Providing threat level and transpor-
tation updates of road, bridge, tunnel
and subway closings and detours
from the Police Department.
• Enhanced mail handling to deal with
potential anthrax, bomb scares, etc.
It quickly became clear that all
staff had an important role to play
in dealing with a crisis such as this.
Training, Training, Training
In the seven months since September 11,
the common thread that ran through
museums was the importance of train-
ing, training and more training. It was
important to have updated Emergency
Evacuation Plans in place. I made sure
that the necessary safety measures were
put in place and utilized to the fullest
extent, providing the atmosphere of a
“Safe Zone” in the Brooklyn Children’s
Museum for staff and visitors.
The reason training became key was
that many facility managers without
enough security personnel, barriers,
magnetometers and handheld wands
had to evaluate their needs and fill in
the gaps immediately. Through network-
ing, seminars, meetings and updating
manuals, all areas that were vulnerable
to terrorists were strengthened.
Because of the threat of anthrax
arriving through the postal system, our
highest alert went to monitoring the
mail for unmarked packages. Again,
training in new ways of handling the
mail was undertaken, and enhanced
calm was brought to this once volatile
area of concern.
Keeping staff informed and equipped
during these past months has helped
to create balance in dealing with life at
the Museum following September 11.
Things will never return to business
as usual for most people, of course.
Fear will continue to master some
lives, while others will keep rising to
the challenge.
The New York Chapter Committee
members responded very well to the
crisis. Through meetings and network-
ing, a special task force was created,
with support from the Mayor’s Office,
to develop shared responses during an
emergency. A core group was formed,
and the decision was made to first
design a document that would help
facilities of all sizes to create their
own disaster plans. The second step
will be developing shared responses
between institutions.
In communicating with chapter
members about the effects of Septem-
ber 11 on visitation at their institutions,
the overwhelming consensus was that
school groups were particularly visible
by their absence in the months following
the terrorist attacks. An article in the
New York City Council Department
of Cultural Affairs by Kate D. Levin,
Commissioner May 14, 2002 read,
“According to a survey we recently
undertook of the 34 members of the
Cultural Institutions Group (CIG),
between October 1 and December 31,
2001, the CIG collectively suffered
an income loss of $42.6 million; this
figure includes earned income as well
as contributions from corporations,
foundations and individuals. Additionally,
attendance was down by 1.1 million
visitors and school group visits were
down by 35 percent.”
Institutions within three miles
of Ground Zero had a difficult time
receiving services, because they were
closed for at least six to eight weeks.
Other institutions not in the “frozen
zone” were able to utilize their service
suppliers only after identification checks
of the driver and vehicle wanting to
enter our buildings.
The institution closest to Ground
Zero belonged to Myro Riznyk, Facilities
Manager of the Smithsonian Institution,
which is located at 1 Bowling Green.
He stated, “I had no contamination
inside my building, because we closed
our outside air dampers. However, the
outside of the building had three to
four inches of dust and debris.” Other
institutions — in addition to shutting
down their fresh air intake in particular,
depending on the direction the wind
was blowing — decided to change
their filters more often to maintain a
clean environment.
continued on page 8
8. 8
The situation was not so grim for
the Brooklyn Children’s Museum. Visi-
tation was down by 40–50% for the first
three months following September 11,
due primarily to transportation issues
for school classes, closing of bridges
and tunnels, and parental concerns.
While some institutions are still below
their average attendance numbers for
this year, our visitation has slowly
increased within the last four months
to about 75% our normal attendance.
We have been very fortunate.
I know when you dwell on tragedy
and live in the past, memories of
all the pain and hurt can overwhelm
you, to the point where leaving home
can become a strain. Also, thinking of
the future can become a bad dream
or nightmare because of negative self-
talk and fear of what could happen
tomorrow. I find myself now living
more in the present, and enjoying
the simple things in life, instead of
living in the past or worrying about
the future.
Lloyd Headley has a degree in Security
Management, and is currently Director
of Operations and Security at the
Brooklyn Children’s Museum. He has
been listed in the International Who’s
Who of Professionals, and has been
awarded a New York State Senate
Citation for Distinguished Community
Service. He has served as Chairman of
the Museum, Library, Cultural Property
Protection Committee, and is Chairman
of the Museum, Library, Cultural
Property Facilities Committee. He is
currently the Chair of the New York
Chapter of the IAMFA.
Chairpersons
of Regional Chapters
Los Angeles, U.S.A.
James Surwillo
Japanese American National Museum
New York, U.S.A.
Lloyd Headley
The Brooklyn Children’s Museum
Ottawa-Hull, Canada
Toby Greenbaum
Public Works & Government Services
San Francisco, U.S.A.
Joe Brennan
San Francisco Museum of Modern Art
London, England
Karen Plouviez
The British Library
Washington-Baltimore, U.S.A.
Fletcher Johnston
Hirshorn Museum & Sculpture Garden
Coordinators
of Future Chapters
Atlanta, U.S.A.
Kevin Streiter
High Museum of Art
Bilbao, Spain
Rogelio Diez
Guggenheim Museum
Chicago, U.S.A.
William Caddick
Art Institute of Chicago
Houston-San Antonio, U.S.A.
Gary Morrison
McNay Art Museum
Pennsylvania, U.S.A.
Victor T. Razze
Brandywine River Museum and
Conservatory
Seattle, U.S.A.
Patrick Dowling
Whatcom Museum of History and Art
Cleveland, U.S.A.
Tom Catalioti
Cleveland Museum of Art
Sydney, Australia
Bob Scott
The Powerhouse Museum
Amsterdam, The Netherlands
Jan Abrahamse
The Rijksmuseum
The International Association of Museum Facility
Administrators is pleased to welcome the following
new members:
Regular Members
Tom Catalioti
— Cleveland Museum of Art, Cleveland, OH, U.S.A.
Glen Hodges
— Australian Museum, Sydney, Australia
New IAMFA Members
Regional Chapters — continued from page 7
9. 9
Glen Hodges
Australian Museum
6 College Street
Sydney
Australia
2010
glenh@austmus.gov.au
Phil Rees
National Gallery of Australia
GPO Box 1150
Canberra, ACT
Australia
2601
philr@nga.gov.au
Carole Beauvais
National Archives of Canada
395 Wellington
Ottawa, Ontario
K1A 0N3
Canada
cbeauvais@archives.ca
Dale Cameron
National Archives of Canada
National Library of Canada
344 Wellington Street, Rm. 5076
Ottawa, Ontario
K1A 0N3
Canada
dcameron@archives.ca
Bob Chartrand
National Museum of Science
and Technology
2421 Lancaster Road
Ottawa, Ontario
K1G 5A3
Canada
rchartrand@mmstc.ca
Ian Follett
Facility Management Services
Ltd.
45 Maryland Place, SW
Calgary, Alberta
T2V 2E6
Canada
fmsltd@fmsltd.com
Gerry Potoczny
Canadian Museum of Nature
P.O. Box 3443 Stn. D
Ottawa, Ontario
K1P 6P4
Canada
gpotoczny@mus-nature.ca
Lynn Row
Ontario Science Centre
770 Don Mills Road
North York, Ontario
M3C 1T3
Canada
lynn.row@osc.on.ca
CANADA
AUSTRALIA
Guy Larocque
Canadian Museum of
Civilization
100 Laurier Street
Hull, Quebec
J8X 4H2
Canada
guy.larocque@civilisations.ca
Pierre Lepage
Canadian Museum of
Civilization
100 Laurier Street
Hull, Quebec
J8X 4H2
Canada
pierre.lepage@civilization.ca
José Luis Oliveros
Centre canadien d’Architecture
1920, rue Baille
Montréal, Quebec
H3H 2S6
Canada
jolivero@cca.qc.ca
Leslie Brantingham
Parliamentary Works
Directorate
1 Cannon Row
London, England
SW1A 2JN
brantinghaml@parliament.uk
Peter Fotheringham
National Gallery
Trafalgar Square
London, England
WC2N 5DN
peter.fotheringham@
ng-london.org.uk
Graham Pellow
Natural History Museum
Cromwell Road
London, England
SW7 5BD
g.pellow@nhm.ac.uk
Karen Plouviez
British Museum
96 Euston Road
London, England
NW1 2DB
karen.plouviez@bl.uk
Jan Abrahamse
Rijksmuseum
Stadhouderskade 42
1071 ZD Amsterdam
The Netherlands
jan.abrahamse@wolmail.nl
THE NETHERLANDS
ENGLAND
Robert Galbraith
National Galleries of Scotland
13 Heriot Row
Edinburgh, Scotland
EH4 3DS
robert.galbraith@
natgalscot.ac.uk
Rogelio Diez
Guggenheim Museum
Abandoibarra 2
48001 Bilbao
Spain
rdiez@guggenheim-bilbao.es
ALABAMA
Shirley A. Woods
Montgomerey Museum of
Fine Arts
P.O. Box 230819
Montgomerey, AL
36123-0819
USA
shirleywoods@mindspring.com
ARKANSAS
John Pagan
Arkansas Art Center
P.O. Box 2137
Little Rock, AR
72203-2137
USA
jpagan@arkarts.com
CALIFORNIA
Donald Battjes
Los Angeles County Museum
of Art
5905 Wilshire Blvd
Los Angeles, CA
90036
USA
dbattjes@lacma.org
Joe Brennan
San Francisco Museum of
Modern Art
151 Third St.
San Francisco, CA
94103-31
USA
jbrennan@sfmoma.org
USA
SPAIN
SCOTLAND
Jim Bullock
Getty Center (Getty Museum)
1200 Getty Center Dr., Ste. 1000
Los Angeles, CA
90049-1687
USA
jbullock@getty.edu
John Coplin
Santa Barbara Museum of Art
1130 State Street
Santa Barbara, CA
93101-2746
USA
jcoplin@sbmuseart.org
John Donohoe
J. Paul Getty Museum
1200 Getty Center Drive
Los Angeles, CA
90049-1678
USA
jdonohoe@getty.edu
Steven Green
Cantor Center for the Visual Arts
Cantor Center
Stanford, CA
94305-5060
USA
stegreen@standford.edu
Oren Gray
J. Paul Getty Museum
1200 Getty Center Drive
Los Angeles, CA
90049-1678
USA
ogray@getty.edu
Jim Hartman
Fine Arts Museums
233 Post St., 6th Flr.
San Francisco, CA
94108
USA
jhartman@famsf.org
David Hillbrand
Yerba Buena Center for the Art
701 Mission Street
San Francisco, CA
94103
USA
dhillbrand@yerbabuenaarts.org
Randy Murphy
Museum of Contemporary Art
250 S. Grand Ave., California
Plaza
Los Angeles, CA
90012
USA
rmurphy@moca.org
Mary Omoto
Japanese American National
Museum
369 East First St.
Los Angeles, CA
90012
USA
momoto@janm.org
IAMFA Members Directory 2002
10. 10
Michael Orth
J. Paul Getty Museum
1200 Getty Center Drive
Los Angeles, CA
90049-1678
USA
morth@getty.edu
Ronald Romo
J. Paul Getty Museum
1200 Getty Center Drive
Los Angeles, CA
90049-1678
USA
rromo@getty.edu
Brenda Sheridan
Long Island Beach Museum
2300 East Ocean Blvd.
Long Beach, CA
90803
USA
brendas@lbma.org
Sarah Shulman
California Historical Society
678 Mission Street
San Francisco, CA
94105
USA
sarah@calhist.org
Will Spencer
J. Paul Getty Museum
1200 Getty Center Drive
Los Angeles, CA
90049-1678
USA
wspencer@getty.edu
James A. Surwillo
Japanese American National
Museum
369 East First St.
Los Angeles, CA
90012
USA
jsurwillo@janm.org
CONNECTICUT
Ernest Conrad
Landmark Facilities Group Inc.
252 East Avenue
Norwalk, CT
06855
USA
econrad@lfginc.com
George J. Conte
Yale Center for British Art
29 Oakhill Drive, PO Box
208280
North Haven, CT
06520-8280
USA
Gjc5.mail.yale.edu@
mr2.its.yale.edu
DISTRICT OF COLUMBIA
Eugene Brown
U.S. Holocaust Memorial
Museum
100 Raoul Wallenberg Place, SW
Washington, DC
20024-2126
USA
ebrown@ushmn.org
Marla Chanin-Tobar
Meridian International Center
1630 Crescent Place, NW
Washington, DC
20009
USA
mctobar@meridian.org
Daniel D. Davies
National Museum of American
Art and Portrait Gallery
Victor Building 9th & G Street,
NW
750 Ninth St. N.W.
Washington, DC
20560-0201
USA
ddavies@opp.si.edu
Richard Day
National Museum of Natural
History
10th St. & Constitution Ave., NW
Washington, DC
20056
USA
day.richard@nmnh.si.edu
Ron Hawkins
Smithsonian Institution-
Quadrangle
1100 Independence Avenue, SW
Washington, DC
20560
USA
hawkins@exchange.si.edu
Fletcher Johnston
Hirshorn Museum
Independence Ave at 7th
Street, SW
Washington, DC
20560-0350
USA
fletchj@hmsg.si.edu
Richard Kowalczyk
National Air and Space
Museum
601 Independence Avenue, SW
Washington, DC
20560-0303
USA
richard.kowalczyk@nasm.si.edu
Eugene F. Ramatowski
U.S. Holocaust Memorial
Museum
100 Raoul Wallenberg Place, SW
Washington, DC
20024-2126
USA
eramatowski@ushmm.org
Kurt Sisson
National Gallery of Art
6th St. & Constitution Ave., NW
Washington, DC
20565
USA
k-sisson@nga.gov
Michael Solfield
Smithsonian Institution
750 Ninth Street, NW
Room 5200 MRC 908
Washington, DC
Washington
USA
FLORIDA
Debbie Towers
Morikami Museum & Japanese
Gardens
4000 Morikami Park Road
Delray Beach, FL
33446
USA
dtowers@co.palm-beach.fl.us
GEORGIA
Kevin Streiter
High Museum of Art
1280 Peachtree NE
Atlanta, GA
30309
USA
kevin.streiter@
woodruffcenter.org
HAWAII
Robert White
Honolulu Academy of Arts
900 S. Beretania Street
Honolulu, HI
96814
USA
rwhite@honoluluacademy.org
ILLINOIS
Brendan Berry
Advantage Operations, Art
Institute
125 E. Monroe
Chicago, IL
60603-1073
USA
bberry@artic.edu
Bill Caddick
Art Institute of Chicago
111 S. Michigan Avenue
Chicago, IL
60603-6110
USA
wcaddick@artic.edu
Paul Huber
Advantage Operations
3906 N. Monticello Avenue
Chicago, IL
60618-4128
USA
pshuber@telocity.com
Don Meckley
Museum of Contemporary Art
220 E. Chicago Avenue
Chicago, IL
60611-2604
USA
dmeckley@mcachicago.org
LOUISIANA
Jackie Sullivan
New Orleans Museum of Art
P.O. Box 19123
New Orleans, LA
70179
USA
jsullivan@noma.org
MAINE
David Geldart
Museum of Fine Arts, Boston
465 Huntington Ave.
Boston, MA
02115
USA
dgeldart@mfa.org
James S. Labeck
Isabella Stewart Gardner
Museum
2 Palace Road
Boston, MA
02115
USA
jlabeck@isgm.org
David Roth
Children Museum Inc.
Museum Wharf
308 Congress St.
Boston, MA
02210-1034
USA
roth@bostonkids.org
MARYLAND
Alan Dirican
Baltimore Museum of Art
10 Art Museum Drive
Baltimore, MD
21218-3898
USA
adirican@artbma.org
Jeffery H. Greene
Banneker-Douglas Museum
84 Franklin Street
Annapolis, MD
21401-2738
USA
banneker@dhcd.state.md.us
IAMFA Members Directory 2002
USA (cont’d)
CALIFORNIA (cont’d)
11. 11
MISSOURI
Reed Lillard
Nelson-Atkins Museum of Art
4525 Oak Street
Kansas City, MO
64111-1873
USA
rlillard@nelson-atkins.org
NEW YORK
Brij Anand
Guggenheim Museum
1071 Fifth Avenue
New York, NY
10128
USA
banand@guggenheim.org
Ciro Bottacavoli
IEN Magazine
5 Penn Plaza
New York, NY
10001
USA
CAB@tpmgnet.com
Martin Cavanaugh
Pierpont Morgan Library
29 East 36th Street
New York, NY
10116
USA
mcavanaugh@morganlibrary.org
William Esposito Jr.
Ambient Labs, Inc.
55 West 39th Street, 12th Floor
New York, NY
10018-3803
USA
wesposito@ambientgroup.com
Vincent Magorrian
Museum of Modern Art –
New York
11 West 53rd Street
New York, NY
10019
USA
vinnie_maggorrian@moma.org
Myro Riznyk
Smithsonian Institution-
National Museum of the
American Indian
One Bowling Green Drive
New York, NY
10004
USA
riznykm@ic.si.edu
Tom Scally
Metropolitan Museum of Art
Communication Department
100 5th Avenue
New York, NY
10028-0198
USA
tom.scally@metmuseum.org
Harry Soldati
Brooklyn Museum of Art
200 Eastern Parkway
Brooklyn, NY
11238
USA
soldati@brooklynmuseum.org
Dennis F. Sweeney
Frick Collection
1 East 70th Street
New York, NY
10021
USA
sweeney@frick.org
Stan Zwiren
Brooklyn Museum of Art
200 Eastern Parkway
Brooklyn, NY
11238-6052
USA
zwiren@brooklynmuseum.org
OHIO
Paul Bernard
Toledo Museum
2445 Monroe Street,
Scottwood Avenue
Toledo, OH
43697
USA
pbernard@toledomuseum.org
Tom Catalioti
Cleveland Museum
11150 East Blvd.
Cleveland, OH
44106
USA
catalioti@cma_oh.org
David Nawrocki
Columbus Art Museum
400 E. Broad St.
Columbus, OH
43215
USA
dnawrock@cmaohio.org
Dave Gearding
Cincinnati Art Museum
953 Eden Park Drive
Cincinnati, OH
45202-1596
USA
dgearding@cincyart.org
PENNSYLVANIA
Larry Armstrong
Carnegie Museums
4400 Forbes Avenue
Pittsburgh, PA
15213
USA
armstrongl@
carnegiemuseums.org
Douglas Bowerman
Allentown Art Museum
5th and Court Streets
P.O. Box 388
Allentown, PA
18105
USA
operations@
allentownartmuseum.org
Terri L. Chapman
Frick Art and Historical and
Finance
7227 Reynolds Street
Pittsburgh, PA
15208-2923
USA
tlchapman@frickart.org
Walt Crimm
Ewing Cole Cherry Brott
100 North Sixth Street, 6th Floor
Philadelphia, PA
19106
USA
wcrimm@ewingcole.com
Rad Delaney
Ewing Cole Cherry Brott
100 North Sixth Street, 6th Floor
Philadelphia, PA
19106
USA
radelaney@ewingcole.com
Bob Morrone
Philadelphia Museum of Art
26th & Benjamin Franklin Pkwy.
P.O. Box 7646
Philadelphia, PA
19101-7646
USA
rmorrone@philamuseum.org
Tom L. Peck
Colonial Williamsburg
Foundation
P.O. Box 1776
Williamsburg, PA
23187-1776
USA
Victor T. Razze
Brandywine River Museum and
Conservatory
P.O. Box 141
Chaddis Ford, PA
19317
USA
vrazze@brandywine.org
Richard J. Reinert
Affiliated Building Systems
2600 Benjamin Franklin Pkwy.
Philadelphia, PA
19130
USA
rreinert@philamuseum.org
James Sutton
Philadelphia Museum of Art
26th & Benjamin Franklin Pkwy.
P.O. Box 7646
Philadelphia, PA
19101-7646
USA
jsutton@philamuseum.org
SOUTH CAROLINA
Michael Roh
Columbia Museum of Art
P.O. Box 2068
Columbia, SC
29202
USA
michael@colmusart.org
TEXAS
Henry Griffin
Museum of Fine Arts, Houston
1001 Bissonnet
Houston, TX
77265-6826
USA
hgriffin@mjha.org
Gary L. Morrison
McNay Art Museum
P.O. Box 6069
San Antonio, TX
78240
USA
glmmcnay@juno.com
Jeffery Ryan
Jackson and Ryan Architects
2370 Rice Boulevard, Suite 210
Houston, TX
77005
USA
jryan@jacksonryan.com
VIRGINIA
John Cannup
Mariner’s Museum
100 Museum Drive
Newport News, VA
23221-2466
USA
jcannup@mariner.org
WISCONSIN
Richard Swainston
Milwaukee Public Museum
800 Wells St.
Milwaukee, WI
53233
USA
dick@mpm.edu
IAMFA Members Directory 2002
Although we do our best to
ensure that our Directory
information is as up-to-date
as possible, errors
and omissions can always
occur. If you would like
to make any changes to your
listing, please contact
Julie Coderre at
julie.coderre@
civilization.ca
Thanks very much.
12. 12
On behalf of the membership and Board, we invite you to
join with other museums and cultural organizations through-
out the world in becoming a member of the only organization
exclusively devoted to museum and cultural facility admin-
istrators: the International Association of Museum Facility
Administrators (IAMFA). As a member, you will join a growing
list of museum and cultural facility administrators in their
efforts to provide a standard of excellence and quality in
planning, development and design, construction, operation
and maintenance of cultural facilities of all sizes and varieties
of programming.
The Association currently has representation in several
countries on three continents. Our goal is to increase
membership in institutions throughout the world.
Your involvement in the IAMFA will continue the growth
of the organization and provide you with excellent educational
and networking opportunities. As your colleagues, we look
forward to welcoming you to membership in the IAMFA.
Cordially yours,
The Board of the International of Museum Facility
Administrators
Membership Opportunities
Join the IAMFA at any of the following levels and enjoy full
benefits of membership:
Regular Member — $150 annually. A regular member
holds the position of principal administration in direct
charge of the management of facilities, and represents their
institution(s) as a member of the association.
Associate Member — $50 annually. An associate member
is a full-time facilities management employee (professional,
administrative or supervisor), below the level of the facility
administrator of the member association.
Affiliate Member — $50 annually. An affiliate member is
any full-time employee of a member institution who is not
directly involved in the facilities management department.
Subscribing Member — $300 annually. A subscribing
member is an individual, organization, manufacturer of
supplier of goods services to the institutions who ascribes
to the policies and programmes of the Aassociation, and
wishes to support the activities of the Association.
Become a Member of the IAMFA
and Get a Friend to Join
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YES! I would like to join the IAMFA as a:
Ⅺ Regular Member $150 Ⅺ Associate Member $ 50
Ⅺ Affiliate Member $ 50 Ⅺ Subscribing Member $300
Institution: __________________________________________________________________________________________________________________
Name: ______________________________________________________________________________ Title: ________________________________
Address: ____________________________________________________________________________ City: _________________________________
State/Province: _______________________ Zip/Postal Code: _______________________ Country:_____________________________
Phone: _____________________________________ Fax: ____________________________________ E-mail: ______________________________
ALL FEES ARE PAYABLE IN U.S. DOLLARS
Ⅺ I enclose a check in the amount of $ ____________________
Ⅺ Please invoice me
¡
Send in your membership dues by using the convenient form below.
Don’t forget to make a copy to give to a colleague.
Please remit to: International Association of Museum
Facility Administrators
P.O. Box 1505, Washington, D.C.
20013-1505 U.S.A.
Website: www.iamfa.org
Ⅺ I am interested in joining.
Please have a member
contact me.
13. 13
Inaugurated in October 1997, following
five years of construction, the Guggen-
heim Museum Bilbao of Modern and
Contemporary Art is a unique and
remarkable feat of engineering.
Designed by renowned architect
Frank O. Gehry, the museum runs down
to the banks of the river Nervión, and
seems to slide beneath the Puente de la
Salve bridge — one of the main points
of access to the city of Bilbao in the
Basque region of northern Spain.
The main entrance leads directly into
the heart of the Museum. As visitors
stand in the central atrium, they are
immediately struck by how well this
building — which is over 50 metres
(160 feet) in height and commands a
32,500-square-metre site in the centre
of the city — can fit into the urban
landscape without towering over
neighboring buildings.
The museum offers 11,000 square
metres of exhibition space, distributed
among 19 galleries. Ten of these, clad
externally in limestone blocks, have a
classical orthogonal appearance, while
the remaining nine have irregularly-
shaped interiors clad externally with
titanium plates. Organized on three
levels around the atrium, the galleries
are connected by curving walkways
suspended from the roof, complemented
by glass-fronted elevators and towers.
During the design and construction
stages, the Los Angeles-based Gehry
collaborated with American and inter-
national consultants in HVAC, electrical
and general installations, lighting, noise
control, audiovisual equipment, fire-
prevention equipment, security, etc.,
while also benefiting from the exper-
tise of the Guggenheim Museum in
New York City. This approach led
to the creation of a multidisciplinary
team capable of designing a complex
structure — including management
of the engineering feats required for
the realization of Gehry’s stunning
architectural concept. In Bilbao, the
Guggenheim Museum Consortium,
which was entrusted with the building’s
construction, collaborated with a team
of engineers and architects. The team
was responsible for performing and
supervising construction of the build-
ing, while also managing all aspects of
the project requiring compliance with
local standards and working methods.
Work continued virtually around the
clock: while one set of engineers and
architects worked on one continent,
the other rested.
The main installations in this museum
were as follows: HVAC, lighting and
electricity, fire-prevention, security,
communications systems, elevators,
plumbing and sanitary systems. This
article provides a brief summary of the
most salient aspects of some of these.
HVAC
The function of the HVAC system is to
maintain pre-established environmental
conditions inside the building, 24 hours
a day, 365 days a year. The air-condi-
tioning system has two basic aims: the
conservation of works of art contained
in the Museum, and the comfort of
visitors and staff.
On the one hand, the project required
strict atmospheric conditions of between
48–52% RH and 21–22ºC. On the other,
The Installations of the
Guggenheim Museum Bilbao
A Dialogue Between Engineering and Architecture
by Rogelio Diez and Luis Pablo Elvira
The ceiling of the central atrium soars to a height of 50 metres (160 feet).
Rogelio Diez
continued on page 14
14. 14
the climate-control system had to be
integrated into the singular architecture
of the building. The volume — with
standard heights of between 5 and
7 metres (16 to 22 feet) and a height
of 50 metres (160 feet) in the case
of the central atrium, as well as the
presence of curtain walls — required
meticulous engineering to obtain an
optimal distribution of the air in the
Museum’s various spaces.
The Guggenheim’s system is based
on the production of hot water and
water vapour in gas-fired boilers, the
production of cold water by means
of centrifuge coolers, and distribution
to the air handling units (AHUs). The
AHUs filter, dry, heat, cool or moisten
air which has been recirculated from
the air-conditioned spaces. The entire
system is managed by a distributed
digital control system. This system,
in accordance with readings from the
temperature and relative humidity
sensors installed in the galleries, and in
accordance with the software created
for this purpose, provides precise
control of conditions required inside
the building.
With regards to the distribution
of air in the building, the uniformity
and low speeds of the air — and the
system’s integration into the architecture
of the building — were the main factors.
Linear slot air diffusers were chosen.
These were placed at the tops of walls,
with air returned via a set of different
slots at the bases of the walls. Noise
control was guaranteed with the use
of silencers in the mechanical rooms,
ductwork fitted with acoustic insulation,
and with low air-speed criteria in
the gallery environment. The energy-
saving criteria — such as volume
control through the use of frequency
variators — were extremely important.
The installation has a heating capacity
of 3500 kW, a refrigerating capacity of
5100 kW, and about 1 million cubic
meters of air are circulated every hour.
Lighting
Lighting for the spaces inside the
Museum combines artificial light and
controlled contributions of natural light
through skylights placed at the top
of the building. The interior lighting
system had be flexible, in order to avoid
overwhelming the ceilings with track
lighting, or other elements which might
disrupt the architectural aesthetics of
the building. This was achieved with
the design of a system consisting of
“power point/power bars”.
Special recessed structural outlet
boxes with split-wired receptacles
occur in a regular pattern on the
gallery ceilings, and are regarded as
power points. An individual fixture
can be directly installed at these points
on special clamping bars (power bars)
which have built-in receptacles. These
can be secured to hold between two
and six fixtures, depending on the
length of the power bar. Retractable
magnetic covers conceal power points
that are not in use, thus minimizing visual
clutter and scarring of the ceiling plane.
On the other hand, the Museum’s
lighting system had to allow adjustment
of the light intensity of several lighting
fixtures, in accordance with the require-
ments and designs of the different exhi-
Before arriving at the Museum’s main entrance, visitors encounter the flower sculpture
Puppy by artist Jeff Koons.
In the Museum, there
are more than 20 air-
handling units, moving
nearly 1 million cubic
metres per hour. This
is one of them. In the
main mechanical
room, there are three
centrifugal chillers,
with a total capacity
of 5100 kW.
To avoid overwhelming the ceilings with
track lighting, a system consisting of
“power point/power bars” was designed.
15. 15
bitions. To do this, a control system
was installed consisting of dimmers,
thus allowing the lighting of spaces
to be re-programmed easily, and
enabling the control of more than
2,000 independent light fixtures.
Communications
The communications system is based
on star topology on optical fibre, and
uses Class 5 structured cable on plant
distribution. The plant switches and
the data servers are connected to the
central switch, and the user equipment
is connected to the plant switches. The
network is designed around the concept
of collapsing the various wiring closets
into a central Gigabit Ethernet switch,
via the relevant application servers over
fibre optic cable. From the heart of the
installation, the trunk lines run to the
100 Mbps connection for each server.
The network is then distributed to
smaller cabinets, housing modular, stack-
able switching devices at 10/100 Mbps
to the desktop, according to individual
user needs. This infrastructure ensures
the high availability of bandwidth-
intensive marketing, design, ticketing,
finance and general administrative
applications for more than 200 users.
Fire Protection
The fire alarm system is based on a
distributed system, meaning that the
installation is supervised from four
alarm panels connected by a bus. The
optical heat signals that reach the fire
panels from the fire detection devices
are analyzed not only for their intensity,
but also for their development in time.
Following this analysis, the system
diagnoses the fire threat. With regard to
the fire protection systems, it is necessary
to point out that a preaction double-
interlock sprinkler system was chosen,
which covers all the spaces containing
works of art. For the remaining areas
of the Museum, a wet sprinkler system
was chosen.
The Museum presented us with some
unusual engineering challenges, re-
quiring us to find installations which
would be effective, without marring the
building’s extraordinary architecture. We
believe we’ve succeeded. By combining
the best in engineering and architectural
expertise, the teams responsible for
the Guggenheim Museum Bilbao have
created a hardworking facility which
is also considered one of the world’s
architectural icons.
Rogelio Diez is a Senior Industrial
Engineer, and was the engineer
responsible for installations at the
Guggenheim Museum in Bilbao,
beginning at the design stage in 1992.
He is currently Director of Maintenance
and Installations at the Museum.
He would also like to acknowledge the
assistance of Luis Pablo Elvira, Director
of Information Technology of the
Guggenheim Museum, who helped
in the writing of this article.
Fire-protection preaction panels and valves. A double-interlock preaction system was
installed to protect works of art.
East side of the Museum — a beautiful combination of titanium, glass, stone and water.
16. 16
In 1980, Black & McDonald (B&M) recognized the need for
a computerized maintenance management system, as a tool
for managing the fast-growing facility management portion
of their business. The lack of an “off the shelf” product at
the time led B&M to commit the funds and personnel to
develop an in-house proprietary solution to fill this need,
and the CMM system was born. This is a Windows®-com-
patible, FoxPro-based software that was meant to be a
powerful but intuitive program that would have a fast
learning curve and feature simplicity of use.
The software
was developed
to provide accu-
rate database
manipulation
of electrical and
mechanical sys-
tems, equipment
specifications
files, equipment history files, preventative maintenance
schedules, orders for repair work, subcontractor work
orders and inventory control.
Today, development of the CMM software has been
extended to encompass all areas of building maintenance and
operations, from structural to landscaping. Major enhance-
ments have been made in management and operations
reporting, to enable current information to be utilized in all
areas of the program, from inventory control to installation
and maintenance scheduling.
B&M is proud to share with readers of Papyrus how
the application is used in a museum environment for the
Canadian Museum of Civilization Corporation (CMCC). This
Crown Corporation was established in 1990 to manage the
Canadian Museum of Civilization (CMC), the Canadian War
Museum (CWM) and two other museum storage facilities.
At that time, the premises were maintained by staff from the
Federal Government’s Public Works Department (PWGSC).
At the opening of the CMC, PWGSC installed a computerized
facility management system that would come to be known
as the PMMS system. This entry-level, but groundbreaking,
software listed most of the building systems, complete with
pertinent equipment information, and described the preven-
tative maintenance to be carried out, as well as its frequency.
In 1996, the CMCC decided to go to the private sector
with a “Request for Proposal” to assume the operation and
maintenance of all of their assets. Following a rigorous selec-
tion process, Black & McDonald was selected as the successful
contractor, and a four-year contract was signed, which has
come to be known as the “Plant Services Contract”.
At its opening, the CMC was a state-of-the-art facility,
and even after 13 years in operation, remains quite advanced.
The mandate of protecting the Museum’s vast and irreplace-
able collection of artifacts was realized with a series of
sophisticated maintenance and monitoring systems, tied to
a central monitoring location. At the same time, declining
financial resources demanded that such systems be efficient
and cost-effective. To deliver on these mandates, it is imper-
ative that both the owner and operator be able to monitor
preventative maintenance and gather historical data on these
systems. This is made doubly important by the need to
report such data to other institutions, as a condition for
lending artifacts for special and travelling exhibits.
In the first weeks of its mandate at the CMC, B&M’s
Corporate Response Team, in conjunction with the on-site
staff hired for this contract, saw to the installation of the
CMM software. The database was a combination of infor-
mation transported electronically from the PMMS system, and
information gathered on-site. Of special importance was
the need to capture the information on systems that were
not represented in the PWGSC system. It should be noted
that the process of data collection and verification was a
very helpful tool in familiarizing maintenance staff with the
various systems at this critical time of project implementation.
For a CMMS system to be effective, it is necessary that:
• No work is done “outside” the system. It is imperative
that as much information be collected as possible to
make historical trending as accurate as possible, and
to make sure that follow-up maintenance is carried out
and recorded.
• All information must be entered into the system on
a timely basis. This includes time sheets, unscheduled
work, modifications to systems, etc.
• The system must be kept “up-to-date”. New systems
or modifications to existing systems must be entered into
the system to keep the database current. Once the infor-
mation is compromised, it gets “easier” to fall behind,
leading to decreasing confidence in the accuracy of the
information. This can quickly spiral downwards until the
system is in place in spirit only (rather like software on
the shelf).
• The information generated by the system is used!
After all, one of the key reasons for the system is to
improve operational efficiency. To do this, one must be
constantly evaluating the information gathered by the
program. That means regular concise reporting that
allows trending and “tweaking” of the various systems.
Black & McDonald, CMM, and Museums
by Richard E. Harding and Edmond Richard
17. 17
• Both parties accept the fact that the system is
important to both the client and the service
provider. That is to say that the system can not only
provide the owner with confidence that the work is
being done as required, but that the service provider
can deliver (and verify) the added value that such
procedures can deliver.
With the goal of making the system intuitive and easy
to learn, the following “road-map” is an integral part of the
CMM software, and allows for easy movement between the
various databases.
To meet the expressed mandate of allowing for simple,
precise reporting, the CMM was set up with a series of budget
modules as per the screen capture below:
This approach allows the user to create Cost Centres,
Budget Codes and Fiscal Years to track maintenance and
operational budgets. Actual operational costs are automatically
captured from the timekeeping and purchase order modules.
This gives the user up-to-date figures to help in determining
accurate costs to date and to help in budgetary projections.
Budget module reporting includes such reports as the Audit
report, Budget by Budget Code report, Budget by Cost Centre
report, and Cost Centre or Budget Code listings. A typical
Budget by Cost Centre report would combine the Material,
Labour and Subcontractor charges for each cost centre into
a summary report detailing current month charges, and
year-to-date charges as compared to budgeted amounts.
It is available for any or all specified cost centres.
The equipment database is at the heart of the CMM pro-
gram at the Canadian Museum of Civilization. All preventative
maintenance and repair tasks are performed based on this
equipment. From this database, maintenance and operations
personnel can retrieve manufacturer names, parts numbers,
and specifications without having to travel to the equipment
location. For the Plant Services Contract at present, the data-
base is monitoring over 4,000 pieces of equipment under
40 categories. It is generating approximately 2,800 PM work
orders, and 3,400 unscheduled work orders (“trouble calls”)
per year.
A generic sample report would look as follows:
The banner screen, as shown below, captures nameplate
data such as make, model, serial no., type, etc. Associated
with each type of equipment is the specifications template.
The software allows the user to customize existing equipment
templates, and to add or create new templates. As building
systems get more and more complicated, the issue of moni-
toring warranty dates gets more difficult. In the CMM system,
equipment that is currently under warranty is flagged to
the user, so that replacement costs can be minimized. This
warranty flag is also reproduced on the work order to
ensure that the technician is aware that the equipment is
under warranty and that proper procedures are followed.
continued on page 18
18. 18
To control and monitor the “trouble call system”, the
operator can create a work order detailing the work to be
performed, caller name, phone number, date, time of call,
classification of work order, priority, department, and client
ID cross-reference. The banner screen used for these calls
is shown below.
A final aspect of special interest is the control of labour
hours and the appropriate allocation of hours for reporting
purposes. A sample screen is shown below. This module is
used to record labour expended by building operation and
maintenance personnel. CMM software distributes the labour
costs, and produces weekly payroll reports for each main-
tenance/operation staff member. Maintenance and operation
labour hours can be entered daily and charged to any pre-
defined cost centre and budget codes. A separate database
stores the current labour rate for each employee, which the
computer uses to calculate the up-to-date costs for all work
charged to the system. Associated with the labour rates are
user-created “paycodes” which are custom-built algorithms
used to calculate overtime charges, shift premiums, meal
allowances, etc.
The four-year contract expired in 2000, and the client went
once again to the market with an RFP. Black & McDonald
was successful in retaining the contract, and the mandate
was expanded to include facility management of the premises
(overseeing janitorial, snow removal, landscaping, and system
repairs of a non-mechanical or electrical natures such as
doors, windows, carpets, pest control etc.) and maintenance
of the building’s security systems. At the commencement of
the new contract, a new branch was opened in the CMM
system to oversee preventative maintenance and trouble call
systems under this new mandate. This seamless transition
was built upon the experience and database already in
place, and allowed the staff hired under this new contract
to quickly “get up to speed” with a minimum of effort in
set-up and implementation.
At present, B&M has 21 full-time staff operating on a
24-hour-a-day, seven-days-per-week schedule, maintaining
over 100,000 square metres (1,000,000 square feet) of premises.
The comprehensive, “real-time” CMM maintenance manage-
ment system has been a major factor in the successful
partnership that has been forged between the Canadian
Museum of Civilization Corporation and Black & McDonald
Limited. It is a partnership which marries the public-sector
mandate of protecting and displaying the country’s national
faciilties and collections with the experience and project
delivery efficiencies of the private sector.
Richard Harding is a graduate architect, and is the
Manager of Facilities, Management and Operations for
Black & McDonald. Mr. Richard is a graduate mechanical
engineer, and is the site Project Manager at the Canadian
Museum of Civilization for Black & McDonald.
Black & McDonald — continued from page 17
19. 19
The Smithsonian Institution has
embarked on a new program to imple-
ment Engineering Best Practices. This
five-module program has a clearly
defined purpose: “Obtain more timely,
cost-effective, higher quality and safer
project delivery through application
of the industry’s best practices by an
integrated project team of Smithsonian
and contractor personnel from the pre-
authorization through the operations
and maintenance phase . . .”
The five modules of the program are
Pre-Project Planning, the Project Team,
Constructability, Value Management,
and Performance Management. This
article will look at an early Smithsonian
deployment of the PDRI (Project Defi-
nition Rating Index): one key tool used
in the Pre-Project Planning module.
The PDRI is a weighted list which
contains the most critical elements
defining project scope for building
projects. It has three sections, broken
into 11 categories, further broken into
64 elements. Thirty-eight pages of
descriptions support these elements.
The PDRI identifies and precisely
describes each critical element in a
scope definition package, and allows
a project team to quickly predict
factors which would have an impact
on project risk.
The PDRI is intended to evaluate
how complete the definition of scope
has been at any point before a project is
considered for authorization of detailed
design and construction. A 1,000-point
scoring system is used, with lower
scores indicating a better-defined
scope. A loose rule of thumb is that a
score under 200 suggests the project
is probably ready to proceed from
concept to design, but the creators of
this tool caution against emphasizing
the score alone. The real products of a
PDRI exercise are understanding, team-
building, identifying missing project
components, and refining the scope of
work. A significant factor in successful
administration of a PDRI is the use
of an independent objective facilitator,
who is knowledgeable about general
requirements, but who is also distinctly
unbiased. The PDRI tool was created
in 1999 by the Construction Industry
Institute of Austin, Texas.
Section I, Basis of Project Decision,
contains the following categories, and
helps to define the “right project”:
A. Business Strategy
B. Owner Philosophy
C. Project Requirements
Section II, Basis of Design, contains
the following categories, and also
helps to define the “right project”:
D. Site Information
E. Building Programming
F. Building/Project Design Parameters
G. Equipment
Section III, Execution Approach,
contains the following categories,
and defines the “right way”:
H. Procurement Strategy
J. Deliverables
S. Project Control
DA. Project Execution Plan
As an initial exercise, we applied
the PDRI tool to a project long past
scope development and well into
design: The Physical Plant Renewal
of the Old Patent Office Building in
Washington, D.C. The idea was to
check on how our project scope of
work met the PDRI test, in a case
where we proceeded into design
without a comprehensive Pre-Project
Planning phase. The outcome was
skewed slightly by the inclusion of a
very large number of “stakeholders”: we
included over 45 participants, while
the recommended group is 20 or less.
Our results were also affected by the
use of an in-house facilitator, which,
even in the most collaborative of
environments, can be perceived as
manipulation.
Still, although the score we derived
(186 of 1,000) suggested we were
on-track, the score was secondary
to the other outcomes. We benefited
enormously from this exercise in four
crucial areas:
• Understanding the needs and
priorities of all key stakeholders
• Teambuilding
• Identifying missing components
• Refining the scope of work
The PDRI benefits owners, designers
and builders. Owners can use it as an
assessment tool to help them establish
a comfort level from which they are
willing to move forward with projects.
Designers and builders can use it as a
method of identifying poorly defined
project elements. The PDRI provides
a means for all project participants to
communicate and reconcile differences,
using an objective tool as a common
basis for project scope evaluation.
More information about the Project
Definition Rating Index (PDRI) and the
Construction Industry Institute (CII) can
be obtained at: http://construction-
institute.org the CII website. More
information about the particulars of
the PDRI exercise on the Old Patent
Office Building can be obtained by
contacting the author at
ddavies@opp.si.edu.
Daniel D. Davies is the Facilities
Manager at the Smithsonian
Institution, National Museum of
American Art and Portrait Gallery
in Washington, D.C.
Best Practices
by Daniel D. Davies
20. 20
Summer has finally caught up with us,
and some of us are already looking
forward to well-deserved holidays;
others of us may not be lucky enough
to have that leisure just now. The
London Conference is just around the
corner, however, with a program that
will make this venue one of the best
in IAMFA history.
This Association has taken a quantum
leap in the development of its annual
conferences. The change of location
each year creates tremendous potential
for conference organizers to diversify
conference activities, making each con-
ference unique and memorable. For
the organizers, it also becomes a truly
collegial experience, giving members
of the organizing committee an oppor-
tunity to work closely with one another
during the two years it takes to prepare
for the event. The conference is also
an opportunity to showcase the best
cultural institutions in the host city. In
addition, conference participants get
an unequalled chance to learn from
colleagues about different management
approaches, to witness progress on
construction sites, and to find out about
successes with recent museum renova-
tions and museum-related construction
projects around the world.
These conferences have been the
backbone of our organization, and we
certainly value the men and women who
have taken up the challenge of putting
together an event of such international
scope and value. The members of each
conference team commit considerable
time and resources over and above
their daily work in order to achieve
these successes, and it is important to
recognize the ongoing effort required
of to structure a conference program
and bring it to fruition. The overall
responsibilities of the conference remain
with committee members, who take it
upon themselves to agree on the out-
lines of a conference program, to request
commitments from guest speakers, to
set up site visits, to negotiate for the
best hotel rates, meeting rooms and
food services, and to solicit donors and
sponsors in order to ensure financial
viability of the conference. It is also the
committee’s responsibility to develop
a spouse program — entertaining
activities that have become a tradition
of excellence with IAMFA.
In conclusion, I would like to note
how you as members contribute to the
success of a conference. Your primary
contribution is, of course, to register in
support of such an activity, but the buck
doesn’t stop there. The most significant
contribution a member can make to
this organization is to convince one
additional museum facility manage-
ment colleague to join IAMFA and to
attend the conference. The successful
growth of this Association depends,
to a great extent, on your personal
commitment to the organization, and
the ultimate success of an IAMFA
Conference is something we all, as
individual members, can share and
take pride in.
Pierre Lepage
Papyrus Editor
IAMFA/Papyrus
SUMMER 2002
Editor
Pierre Lepage
Papyrus Correspondents
Peter Fotheringham
England
Alastair Cunningham
Scotland
Lloyd O. Headley
United States
Rogelio Diez Marcos, Luis Pablo Elvira
Spain
Richard E. Harding, Edmond Richard
Canada
Daniel D. Davies
United States
Production Coordination
Julie Coderre
Deborah Brownrigg
Design and Layout
Phredd Grafix
Editing
Artistic License
Printed in Canada by
St-Joseph M.O.M. Printing
ISSN 1682-5241
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of the editors, officers, or members of
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From the Editor’s Desk
The London Conference . . . Just Around the Corner