Surf’s Up! #EcoMonday Renewable Clean Wave Power Energy

When I read about Scotland’s wave power in this week’s Newsweek I was excited but disappointed.  Disappointed because the USA is not leading the initiative on wave power.

Pelamis on site at EMEC, the planned location for Scotland’s first wave farm.

Various systems are under development at present aimed at harnessing the enormous potential available for wave power off Scotland’s coasts. Pelamis Wave Power (previously Ocean Power Delivery) are an Edinburgh-based company whose Pelamis system has been tested off Orkney and Portugal. These devices are 150 metres (492 ft) long, 3.5 metres (11.5 ft) diameter floating tubes which capture the mechanical action of the waves. Future wave farm projects could involve an arrangement of interlinked 750 kW machines connected to shore by a subsea transmission cable.

Another approach is used by the LIMPET 500 (Land Installed Marine Power Energy Transformer) energy converter installed on the island of Islay by Wavegen Ltd. It is a shore-based unit and generates power when waves run up the beach, creating pressure inside an inclined oscillating water column. This in turn creates pneumatic power which drives twin 250 kW the generators. Islay LIMPET was opened in 2001 and is the world’s first commercial scale wave-energy device. The manufacturers are now developing a larger system in the Faroe Islands.

Funding for the UK’s first wave farm was announced by the Scottish Executive on 22 February 2007. It will be the world’s largest, with a capacity of 3 MW generated by four Pelamis machines at a cost of over 4 million pounds. The funding is part of a new £13 million funding package for marine power projects in Scotland that will also support developments to Aquamarine’s Oyster and Ocean Power Technology’s PowerBuoy wave systems, AWS Ocean Energy’s sub-sea wave devices, ScotRenewables’ 1.2 MW floating rotor device, Cleantechcom’s tidal surge plans for the Churchill barriers between various Orkney islands, the Open Hydro tidal ring turbines, and further developments to the Wavegen system proposed for Lewis as well as a further £2.5 million for the European Marine Energy Centre (EMEC) based in Orkney. This is a new Scottish Executive-backed research facility that has installed a wave testing system at Billia Croo on the Orkney mainland and a tidal power testing station on the nearby island of Eday. At the official opening of the Eday project the site was described as “the first of its kind in the world set up to provide developers of wave and tidal energy devices with a purpose-built performance testing facility.”

The Siadar Wave Energy Project was announced in 2009. This 4 MW system was planned by npower Renewables and Wavegen for a site 400 metres off the shore of Siadar Bay, inLewis. However in July 2011 holding company RWE announced they were withdrawing from the scheme, and Wavegen are seeking new partners. In early 2010 two areas were identified for substantial offshore wind development, in the Moray Firth basin and outer Firth of Forth. Shortly afterwards the Government earmarked eleven sites they expected to benefit from the construction of up to 8,000 offshore turbines by 2020. These included Campbeltown and Hunterston, four sites previously used for offshore oil fabrication atArdersierNigg BayArnish and Kishorn and five east coast locations from Peterhead to Leith. In May 2010 the “Vagr Atferd P2″ Pelamis 750 kW system was launched for testing by EMEC. The device weighs 1500 tonnes and is 180 metres long.

Pelamis Wave Power

Pelamis Wave Power Ltd is the manufacturer of a unique system to generate renewable electricity from ocean waves. For energy companies, utilities and their customers, Pelamis machines offer the ability to unlock an immense clean energy resource with great potential. To see the Pelamis in actionclick here.

The Technology

The Pelamis Wave Energy Converter is the result of many years of engineering development by PWP. It was the world’s first commercial scale machine to generate electricity to the grid from offshore wave energy and the first to be used commercially. For details about how the Pelamis works and to read about our new P2 device, click here. For details of recent machine operations and testing, click here.

Wave Energy

Offshore wave energy has the potential to be one of the most environmentally benign forms of electricity generation. The wave energy around the British Isles has been estimated to be equivalent to three times current UK electricity demand, with the potential to convert a sizeable fraction of this wave energy to electricity. Many other areas of the world also present possible opportunities for wave power conversion. To discover what areas could be potential sites for wave technology in future, click here.

Click here to learn more about Pelamis Wave Power.

Sincerely,
Frank Cunha III
I Love My Architect – Facebook

FC3 ARCHITECTURE+DESIGN, LLC
P.O. Box 335, Hamburg, NJ 07419
e-mail: fcunha@fc3arch.com
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Licensed in NJ, NY, PA, DE, CT.


The Architect’s Role in Sustainable Design (and How to Use Technology & Innovation to Advance Our Green Agenda) #ilmaBlog #green #design #architecture

Background

In the design and construction field, there are two major categories of resources: renewable and non-renewable. As opposed to non-renewable resources, which are depleted with their constant use, renewable resources are not. If not managed properly Non-renewable resources might become non-existent when the rate at which they are used is much higher than the rate at which they are replaced. Renewable resources include water, geothermal energy and wind energy. Non-renewable resources include coal, natural gas and oil.  The demand for new construction is on the rise as the world’s population increases and the demand for newer, more efficient modern buildings also increase.

Architect’s Role

Because buildings account for so much energy to build and maintain, architects and designers have become very conscious about our role in minimizing our environmental footprint when we design buildings.  The American Institute of Architects, the largest organization of architects world-wide has a committee called the Committee on the Environment (COTE), which works to advance, disseminate, and advocate—to the profession, the building industry, the academy, and the public—design practices that integrate built and natural systems and enhance both the design quality and environmental performance of the built environment. COTE serves as the community and voice on behalf of AIA architects regarding sustainable design and building science and performance.

Bamboo

Renewable Resources

In green construction processes, there is an emphasis on the use of renewable resources. In many cases, this natural source becomes depleted much faster than it is able to replenish itself, therefore, it has become important that buildings make use of alternative water sources for heating, hot water and sewerage disposal throughout their life cycles, to reduce use and conserve water supplies.

Architects and designers specify rapidly renewable materials are those that regenerate more quickly than their level of demand. Our goal is to reduce the use and depletion of finite raw materials and long-cycle renewable materials by replacing them with rapidly renewable ones.  Some commonly specified rapidly renewable materials include cork, bamboo, cotton batt insulation, linoleum flooring, sunflower seed board panels, wheat-board cabinetry, wool carpeting, cork flooring, bio-based paints, geotextile fabrics such as coir and jute, soy-based insulation and form-release agent and straw bales. Some green building materials products are made of a merger of rapidly renewable materials and recycled content such as newsprint, cotton, soy-based materials, seed husks, etc.

Check out this ILMA article about “Materiality and Green Architecture: The Effect of Building Materials on Sustainability and Design” for more information on this topic.

Responsibility of Architects

Architects and designers who align with AIA’s COTE objectives, (1) recognize the value of their role in environmental leadership to advance the importance of sustainable design to the general public while incorporating sustainable design into their daily practice, (2) influence the direction of architectural education to place more emphasis on ecological literacy, sustainable design and building science, (3) communicate the AIA’s environmental and energy-related concerns to the public and private sectors and influence the decisions of the public, professionals, clients, and public officials on the impact of their environmental and energy-related decisions, (4) educate other architects on regulatory, performance, technical and building science issues and how those issues influence architecture, (5) educate the architectural profession on programming, designing, and managing building performance, (6) investigate and disseminate information regarding building performance best practices, criteria, measurement methods, planning tools, occupant-comfort, heat/air/moisture interfaces between the interior and exterior of buildings, (7) promote a more integrated practice in order to achieve environmentally and economically efficient buildings. One of the tools we will plan to promote to achieve this integration is Building Information Technology (BIM).

Smart-Building

The Role of Technology & Innovation – A Case Study (“The Edge”)

PLP Architecture and the Developer OVG Real Estate, built “The Edge” is a 430,556 SF (40,000m²) office building in the Zuidas business district in Amsterdam. It was designed for the global financial firm and main tenant, Deloitte. The project aimed to consolidate Deloitte’s employees from multiple buildings throughout the city into a single environment, and to create a ‘smart building’ to act as a catalyst for Deloitte’s transition into the digital age.

They key features of this building include the following innovations which address the environmental impact of building such a large edifice:

  • Each facade is uniquely detailed according to its orientation and purpose.
    • Load bearing walls to the south, east and west have smaller openings to provide thermal mass and shading, and solid openable panels for ventilation.
    • Louvers on the south facades are designed according to sun angles and provide additional shading for the office spaces, reducing solar heat gain.
    • Solar panels on the south facade provide enough sustainable electricity to power all smartphones, laptops and electric cars.
    • The North facades are highly transparent and use thicker glass to dampen noise from the motorway.
    • The Atrium façade is totally transparent, allowing views out over the dyke, and steady north light in.
  • The building’s Ethernet-powered LED lighting system is integrated with 30,000 sensors to continuously measure occupancy, movement, lighting levels, humidity and temperature, allowing it to automatically adjust energy use.
  • 65,000 SF of solar panels are located on the facades and roof, and remotely on the roofs of buildings of the University of Amsterdam – thereby making use of neighborhood level energy sourcing.
  • The atrium acts as a buffer between the workspace and the external environment. Excess ventilation air from the offices is used again to air condition the atrium space. The air is then ventilated back out through the top of the atrium where it passes through a heat exchanger to make use of any warmth.
  • Rain water is collected on the roof and used to flush toilets and irrigate the green terraces in the atrium and other garden areas surrounding the building.
  • Two thermal energy wells reach down to an aquifer, allowing thermal energy differentials to be stored deep underground.
  • In The Edge a new LED-lighting system has been co-developed with Philips. The Light over Ethernet (LoE) LED system is powered by Ethernet and 100% IP based. This makes the system (i.e. each luminaire individually) computer controllable, so that changes can be implemented quickly and easily without opening suspended ceilings. The luminaires are furthermore equipped with Philips’ ‘coded-light’ system allowing for a highly precise localization via smartphone down to 8 inches (20 cm) accuracy, much more precise than known WiFi or beacon systems.
  • Around 6,000 of these luminaires were placed in The Edge with every second luminaire being equipped with an additional multi-sensor to detect movement, light, infrared and temperature.
  • The Philips LoE LED system was used in all office spaces to reduce the energy requirement by around 50% compared to conventional TL-5 Lighting. Via the LoE system daily building use can be monitored. This data is fed to facility managers via the BMS allowing:
    • Remote insight into the presence of people in the building (anonymous). Heating, cooling, fresh air and lighting are fully IoT (Internet of Things) integrated and BMS controlled per 200 sqft based on occupancy – with zero occupancy there is next-to-zero energy use.
    • Predictions of occupancy at lunchtime based on real time historical data and traffic and weather information to avoid food-waste.
    • Unused rooms to be skipped for cleaning.
    • Managers to be alerted to lights that need replacing.
    • Notification of printers needing paper.
  • Every employee is connected to the building via an app on their smartphone. Using the app they can find parking spaces, free desks or other colleagues, report issues to the facilities team, or even navigate within the building.
  • Employees can customize the temperature and light levels anywhere they choose to work in the building via the mobile app. The app remembers how they like their coffee, and tracks their energy use so they’re aware of it.
  • The vast amount of data generated by the building’s digital systems and the mobile app on everything from energy use to working patterns, has huge potential for informing not only Deloitte’s own operations, but also our understanding of working environments as a whole. Discussions are currently ongoing regarding the future of this data and its use for research and knowledge transfer.
  • The green space that separates the building from the nearby motorway acts as an ecological corridor, allowing animals and insects cross the site safely.

Conclusion

Because buildings account for nearly 40 percent of global energy consumption, architects and designers have been working to impact the built environment in a positive way.  Although not every project can be as green as The Edge, by selecting materials that are renewable while reducing energy are two big contributions we can make to help ease the increasing demand for construction.

Technology can play a big part in our role to design more sustainable buildings through the use of building information modeling, energy management software, building management software, online sustainability calculators, energy modeling software, new lighting innovations, new techniques to capture and deliver energy and clean water while reducing waste, and mobile applications utilizing IoT.

Sources:

We would love to hear from you about what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends.

Feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,

FRANK CUNHA III
I Love My Architect – Facebook

 


Glossary of Green Terminologies

The following is a quick reference guide to get you started understanding the jargon associated with green design and construction. We hope you find it useful.

1,000 ppm

One thousandth parts per million is the minimum disclosure threshold. Manufacturer measures and discloses all intentionally added ingredients and residuals that exist in the product at 1000 ppm (0.1%) or greater. These may  trigger a GreenScreen Benchmark (BM-1 or LT-1) or Possible Benchmark 1 (BM-P1 or LT-P1).

10,000 ppm (As per MSDS)

Manufacturer discloses all intentionally added ingredients and residuals that exist in a product. This is the threshold that is required by current MSDS standards

100 ppm

One hundred parts per million is the ideal disclosure threshold. Manufacturer measures and discloses all intentionally added ingredients and residuals that exist in the product at 100 ppm (0.01%) or greater. These may trigger a GreenScreen Benchmark (BM-1 or LT-1) or Possible Benchmark 1 (BM-P1 or LT-P1).

Accessory Materials

Used for the installation, maintenance , cleaning and operations materials; including materials recommended by warranty. For example, if a carpet requires a specific type of adhesive. The adhesive would be the accessory materials.

Assessment

the evaluation of the toxicological properties (hazards) of chemicals; evaluates exposure and risk assessment in relation to both environmental and human health scenarios.

Associated Hazard

disclosure of the health hazards associated with each ingredient; Portico uses a minimum set of authoritative chemical hazard lists against which ingredients are screened for human health and environmental hazards.

Asthmagen

Asthmagens are substances that are known to cause or exacerbate asthma. Asthma is a complex disease, and there is not enough evidence to point to any single cause. Public health agencies often report dust, pet dander, environmental air pollution, tobacco smoke, respiratory infections, mold, exercise, and stress as common triggers of asthma attacks.

Health organizations have also identified a number chemical asthmagens, including many that are commonly used in building materials, such as floorings, insulations and cabinet substrates. These chemicals include: formaldehyde, toluene, styrene, BPA and certain phthalate plasticizers.

Despite better management of asthma through medication, improved outdoor air quality and a dramatic decline in tobacco smoking, the incidence of asthma has continued to rise, especially in children — and in particular among children who are living in poverty.

Authoritative chemical hazard lists

a list of chemicals and their association to human health or environmental hazards. These lists are created by an expert assessment of scientific evidence by a recognized authoritative body.

Biobased

“Biobased” is a term used in the marketing materials of many types of products. While biobased technically describes a product made from a living material (soybean oil, wool, etc.) marketing materials may stretch this definition to include minerals or other naturally occurring materials that aren’t renewable, or suggest that an entire product is made of biobased materials, when in fact only a small percentage of the product is.

Blowing Agent

A class of chemicals that can generate foam in materials, such as those used in insulation, which later harden or solidify into long-lasting structures. Many are known to possess extremely high global warming potential; chlorofluorocarbons (CFCs) have been mostly eliminated from new production since the 2000s, but hydrofluorocarbons (HFCs) are still prevalent. Blowing agents, as a class of products used in building product manufacture, are in an active transition toward healthier and more environmentally friendly options.

CAS Number

chemical abstract service number is a unique numerical identifier for every chemical described in open scientific literature of elements, chemical compounds, polymers and other substances.

Carcinogen/Cancer

Can cause or contribute to the development of cancer.

Characterization

identification and disclosure of ingredients and all hazards associated with ingredient components in the product/material formulation.

Common Product Profile

A profile of a generic, non-manufacturer-specific product type that contains: a brief description of the product type, the expected composition of the product based on publicly available sources, and corresponding health hazards inherent to this composition. Common Product Profiles (CPs) developed as part of the Quartz Project include additional information about the life cycle of the product, such as its contribution to global warming. See http://www.quartzproject.org/ for more information on CPs.

Developmental Toxicant

Can cause harm to a developing child, including birth defects, low birth weight, and biological or behavioral problems that appear as the child grows.

Disclosure Threshold

the level at which all intentionally added ingredients and residuals in the product/material formulation are disclosed (1,000 ppm, 100 ppm, or other). Different standards require specific disclosure threshold. MSDS (Materials Safety Data Sheets require minimum of 10,000ppm.

Endocrine/Hormone Disruptor

Can interfere with hormone communication between cells which controls metabolism, development, growth, reproduction, and behavior (the endocrine system). Linked to health effects such as obesity, diabetes, male reproductive disorders, and altered brain development.

Environmental Attributes

this information can be found in an EPD, LCA, or other studies of global warming impact, carbon content, and embodied energy. We recommend providing this information (when available) because it will be helpful for LEED and LBC regional credit documentation and carbon accounting.

Flame Retardants

Flame retardants are chemical additives to building products that reduce their flammability. They are commonly found in textiles, plastics, coatings, finishes and foams. Halogenated flame retardants – those made with chlorine or bromine – are particularly toxic to human health, and the planet.

Flue-Gas Desulfurization (FGD)

Flue-gas desulfurization is an environmental control technology installed in the smokestacks of coal-fired power plants designed to remove pollutants from the air. These controls are also called “scrubbers”. Once the scrubbers are full of sulfur dioxide, they are often used to create synthetic gypsum. FGD gypsum can be used in drywall, but also in concrete and other applications where mined gypsum can be used. FGD can contain heavy metals such as mercury that can be released into the air when it is incorporated into these products.

Formaldehyde

Formaldehyde is a colorless gas used as a preservative and disinfectant in the building industry, and in the manufacture of polymers. Formaldehyde is carcinogenic, irritates the eyes, nose, and lungs, and is known to react with other atmospheric chemicals to produce the deadly gas carbon monoxide. Formaldehyde is used in some paints and adhesives, in some fabric treatments, and, significantly, in the manufacture of polymeric binding resins used in a wide variety of building products. Phenol formaldehyde, urea formaldehyde, and melamine formaldehyde are all known to release formaldehyde over time long after product installation in residential and commercial spaces.

Global Warming

Can absorb thermal radiation, increasing the temperature of the atmosphere and contributing to climate change.

Global Warming Potential (GWP)

Known as “greenhouse gasses,” certain gasses have the ability to warm the earth by absorbing heat from the sun and trapping it the atmosphere. Global Warming Potential is a tool that allows scientists to compare the severity of greenhouse gasses based on how much heat they can trap, and how long they remain in the atmosphere. By using carbon dioxide for each comparison, a larger GWP number, the more a gas warms the earth, and contributes to climate change.

Look for GWP data on Environmental Product Declarations, and learn more about interpreting these numbers at http://www.epa.gov/ghgemissions/understanding-global-warming-potentials.

GreenScreen

short for “GreenScreen for Safer Chemicals”, a chemical disclosure and assessment standard  developed by Clean Production Action to rank chemicals along a four point scale between the most toxic chemicals and the most benign to guide substitution efforts.

HPD

also known as Health Product Declaration. It is a standardized format that allows manufacturers to share contents of their products, including any hazardous chemicals.

HPD-1

status marked for products that have a Health Product Declaration with full ingredient and hazard listings and a hazard translator with a disclosure threshold of 1000 or 100 ppm; can contain LT-1 scored components

HPD-2

status marked for products that have a Health Product Declaration with full ingredient and hazard listings and a hazard translator with a disclosure threshold of 1000 or 100 ppm; can NOT contain LT-1 scored components

HPD-Partial

status marked for products that have a Partial Health Product Declaration and have characterization of hazards and hazard translator for ingredients; exceptions are acceptable with a disclosure threshold of 1000 ppm

Hazard

Hazard is an intrinsic property of a substance – its potential to harm humans or some part of the environment based on its physical structure and properties. We can assess the hazard of a chemical or material by reviewing the scientific evidence for the specific kinds of harm that a substance can cause (often called the endpoints), such as damage to the human reproductive system, or the onset of asthma. On HomeFree, hazards are displayed with a color indicating the level of concern for each one. Purple is the highest level of concern, followed by red, and then orange.

Because very few products on the market are made with ingredients that have no hazards, you should expect to see hazards called out, even for products that are considered healthier options. The trick is to compare hazards between products, and whenever possible, prefer the product with fewer hazards.

Health Endpoint

A disease symptom or related marker of a health impact on a human or other organism. Examples of human health endpoints include carcinogenicity (causes cancer), reproductive and developmental toxicity, respiratory sensitization, etc. Health endpoints are due to the inherent hazards of a substance, and are determined by authoritative bodies, such as the US EPA or the National Institutes of Health.

Information Request Sent

this means that an email letter has been sent to the manufacturer requesting information about a specific product. This IR may ask the manufacturer to share HPD type data, a GreenScreen Assessment, or a C2C certification in order to meet Google’s Healthy Materials criteria

Intentional Content

each discrete chemical, polymer, metal, bio-based material, or other substance added to the product by the manufacturer or supplier that exists in the product as delivered for final use requires its own line entry and must account for over 99% of the total product. To add content you may enter it by using a CAS registry number, chemical name, abbreviations, common/ trade names, genus/species (for biobased materials), product or manufacturer name (for components)

Inventory

list of product contents, ingredients

Lifecycle

In biology, the term “lifecycle” describes the arc an organism undergoes from birth, through stages of growth and development, to its death. When applied to building products, “lifecycle”describes the arc that chemicals or materials take from the extraction of the raw materials needed for their creation, through their synthesis and inclusion in a building product, the period of time that the product is installed in a building, its eventual removal from the building, and its disposal/reuse/recycling at the end of its useful life. Products (and the chemicals and materials used to make them) often present human and environmental health hazards at any step in this lifecycle.

Material Health

listing the ingredients and present chemical hazards of a product and optimizing towards safer materials

Mutagen

Can cause or increase the rate of mutations, which are changes in the genetic material in cells. This can result in cancer and birth defects.

Optimization

the absence of any “chemicals of concern” in the product/material formulation.

Ozone Depletion

Can contribute to chemical reactions that destroy ozone in the earth’s upper atmosphere.

PBTs

Persistent, Bio-accumulative Toxicants; these are chemicals that are toxic, persist in the environment, bioaccumulate in the food chains, and consequently pose risks to the human health and environment

Persistent Bioaccumulative Toxicant (PBT)

Does not break down readily from natural processes, accumulates in organisms, concentrating as it moves up the food chain, and is harmful in small quantities.

Portico

formerly known as the Healthy Materials Tool; is a new portal for entering and accessing building  product data. Portico is a database that allows project teams unparalleled access to a vast selection of building products. Portico automatically screens manufacturer product information so that products are available in front of Google’s design teams right away.

Predicted from Process Chemistry

Fully disclosed projected residuals based on process chemistry. This option is suggested for manufacturers without the capability of measuring actual residuals. Indicate the tool or other basis for prediction in the Disclosure Notes. The HBN Pharos tool is an example of a tool that predicts potential residuals.

Publish

share HPD information solely to Google, not to general public. If public, please share public URL in the transparency section

Reproductive Toxicant

Can disrupt the male or female reproductive systems, changing sexual development, behavior or functions, decreasing fertility, or resulting in loss of a fetus during pregnancy.

Residual Content

the by-product of a reaction of two or more chemicals that are used in the manufacturing process; known as trace substances remaining in the product from manufacturing steps (such as monomers and catalysts) or contaminants that come with raw materials. Residuals can be known from testing as well as estimated from process chemistry assessment. Predicted from Process Chemistry definition noted above.

Respiratory Sensitization/Asthmagen

Can result in high sensitivity such that small quantities trigger asthma, rhinitis, or other allergic reactions in the respiratory system. This can can exacerbate current asthma as well as cause the disease of asthma.

Screening

review contents against authoritative chemical hazard lists. Health Product Declaration standard uses screening as a pathway to understand and assess products for any human health hazard endpoints.

Self-declared

a product disclosure and screening/assessment which is created “in-house” by the manufacturer of the product, and does not utilize a third party assessor.

Third Party Assessor

an independent assessment body which is not affiliated with the manufacturer or the product.

Tint

Tints are a mix of pigments and other ingredients that give paints their distinct color. These tints can be a substantial source of VOC content in addition to whatever VOCs are in the paint itself. Darker and richer colors will tend to be higher in VOC content. Some manufacturers have developed low or zero VOC tint lines that can be used to insure that a low VOC paint product remains so even in dark or rich colors.

Transparency

the level of product/material formulation information (including ingredients names and associated hazards) being shared by the manufacturer with the end users (i.e. public, third party, Google).  Portico’s transparency category gives points to manufacturers who share product information (HPD) publicly rather than just to Google.

VOC

Volatile Organic Compound

VOC Content

provide the regulatory VOC content  for liquid/wet applied product in g/L; if the VOC content has not been third party certified and there is no standard for the product, indicate “none” on the VOC content line. If the product is not wet applied, indicate N/A

VOC Emission

emissions testing and certification for any product for which the current version of the CDPH (CA Department of Public Health) Standard Method provides emission scenarios

VOCs

Volatile organic compounds (VOC) means any compound of carbon (excluding carbon monoxide, carbon dioxide, carbonic acid, metallic carbides or carbonates, and ammonium carbonate), which react in the atmosphere in the presence of sunlight.

Verification

assessments verified by an independent, third party assessor, in compliance with specific requirements pertaining to the standard at hand.

Zero VOC

5 g/L cutoff threshold recognized by SCAQMD for products that are Zero VOC

ppm

parts per million (1,000 ppm = 0.1%; 100 ppm = 0.01%).

(Source: https://homefree.healthybuilding.net/glossary)

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,

FRANK CUNHA III
I Love My Architect – Facebook


Top 20: Technology & Innovation Ideas For Architects

Thank you for all the support and encouragement over the years.  Here are some of our favorite blog posts about technology and innovation related to the field of Architecture:

  1. High Performance Building Design
  2. 3-D Printing
  3. Connected Spaces
  4. Benefits of Using Digital Twins for Construction
  5. Digital Twins
  6. Drone Technology
  7. Artificial Intelligence
  8. Immersive Experience in Architecture
  9. Smart Cities
  10. Big Data in Architecture
  11. Creating High Performance Buildings through Integrative Design Process
  12. Forget Blueprints, Now You Can Print the Building
  13. The 7 Dimensions of Building Information Modeling
  14. Parametric Architecture and Generative Design System
  15. Architecture Robots
  16. Internet of Spaces
  17. Sustainable Design Elements to Consider While Designing a Project
  18. What is a High Performance School?
  19. What is BIM? Should Your Firm Upgrade? by @FrankCunhaIII
  20. Renewable Wave Power Energy

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
FRANK CUNHA III
I Love My Architect – Facebook


13 Examples of Green Architecture

The Morris & Gwendolyn Cafritz Foundation Environmental Center

The nickname for the Morris and Gwendolyn Cafritz Foundation Environmental Center is the Grass Building, and it perfectly captures its spirit. It’s a structure so thoughtfully designed it’s almost as energy-efficient and low impact as the greenery that surrounds it.

The Maryland building is part of an educational farm on the Potomac River Watershed that the Alice Ferguson Foundation used to teach people about the natural world. This new building—which became the 13th in the world to receive full Living Building Challenge certification in June 2017—is an educational facility designed to blur the lines between indoors and out, while still providing shelter as needed. “Part of the intent of the building is to be in the landscape and still have a bathroom to use,” says Scott Kelly, principal-in-charge at Re:Vision, a Philadelphia-based architecture and design studio.

Further Reading:
https://gbdmagazine.com/2017/grass-building
https://www.aia.org/showcases/92581-the-morris–gwendolyn-cafritz-foundation-env
https://living-future.org/lbc/case-studies/morris-gwendolyn-cafritz-foundation-environmental-center
http://hughloftingtimberframe.com/gallery/commercial/cafritz-foundation-environmental-center
http://www.cafritzfoundation.org/

Brock Environmental Center

Drawing thousands of students, the Brock Environmental Center is a regional hub for the Chesapeake Bay Foundation, in Virginia Beach, Virginia, supporting its education and wetlands restoration initiatives. A connection to nature defines the building’s siting, which provides sweeping views of the marsh and also anticipates sea-level rise and storm surges with its raised design. Parts were sourced from salvage: Its maple floors once belonged to a local gymnasium while school bleachers, complete with graffiti, were used for interior wood trim. The center was recognized for its positive footprint: It has composting toilets, captures and treats rainfall for use as drinking water, and produces 80 percent more energy than it uses, selling the excess to the grid.

Further Reading:
http://www.cbf.org/about-cbf/locations/virginia/facilities/brock-environmental-center
https://living-future.org/lbc/case-studies/the-chesapeake-bay-brock-environmental-center
https://www.visitvirginiabeach.com/listing/chesapeake-bay-foundations-brock-environmental-center/979
https://www.aia.org/showcases/76311-brock-environmental-center

Discovery Elementary School

Students have three distinct, age-appropriate playgrounds—with natural elements such as rocks and fallen trees—at Arlington, Virginia’s Discovery Elementary School. The name honors astronaut John Glenn, who returned to space on the Discovery shuttle and once lived in the neighborhood. Exploration is a theme at the school, whose interior focuses on forests, oceans, atmosphere, and the solar system. The largest zero-energy school in the country, it offers “hands-on learning around energy efficiency and generation,” jurors noted. The school maximizes natural light and provides views to the outside in all classrooms.

Further Reading:
https://www.aia.org/showcases/71481-discovery-elementary-school-
https://www.aiadc.com/sites/default/files/031%20-%20DiscoveryElementarySchool.pdf
https://www.google.com/search?q=Discovery+Elementary+School+AIA&tbm=isch&tbo=u&source=univ&sa=X&ved=0ahUKEwjS-pnHo6LcAhUMON8KHSlUDlYQsAQIdA&biw=1583&bih=1187

Bristol Community College

A laboratory is an energy-intensive enterprise, with specialized lighting and ventilation needs. That’s why jurors praised the airy health and science building at Bristol Community College, in Fall River, Massachusetts, for its net-zero energy achievement, “a difficult feat,” they noted, “in a cold climate like New England’s.” The move saves $103,000 in annual operating costs and allows the college, which offers a suite of courses in sustainability and energy, to practice what it teaches. Part of a holistic campus redesign, the new building’s location increases the density—and thus walkability—of campus for students.

Further Reading:
https://www.aia.org/showcases/71576-bristol-community-college-john-j-sbrega-heal
https://www.mass.gov/service-details/bristol-community-college-john-j-sbrega-health-and-science-building
http://www.architectmagazine.com/project-gallery/bristol-community-college-john-j-sbrega-health-and-science-building_o

Central Energy Facility

Orange and red pipes flaunt their role in “heat recovery” at Stanford University’s Central Energy Facility. The center for powering the California campus—more than a thousand buildings—the facility was transformed from an aging gas-fired plant to one fueled mostly by an off-site solar farm, fulfilling a goal of carbon neutrality and reducing energy use by a third. With large health care and research buildings, the campus needs as much heating as cooling; now a unique recovery system taps heat created in cooling processes to supply 93 percent of the heating and hot water required for campus buildings. The plant reduces Stanford emissions by 68 percent and potable water usage by 18 percent, potentially saving millions of dollars and one of the state’s scarce resources.

Further Reading:
https://www.aia.org/showcases/25976-stanford-university-central-energy-facility
https://sustainable.stanford.edu/new-system
https://www.archdaily.com/786168/stanford-university-central-energy-facility-zgf-architects
https://www.zgf.com/project/stanford-university-central-energy-facility

Ng Teng Fong General Hospital

Like other buildings in Singapore, Ng Teng Fong General Hospital incorporates parks, green roofs, and vertical plantings throughout its campus. But the city-state’s hospitals haven’t traditionally offered direct access to fresh air, light, and outdoor views. This hospital marks a dramatic change, optimizing each for patients. About 70 percent of the facility is naturally ventilated and cooled by fans, cross-ventilation, and exterior shading, saving on precious water resources. The building uses 38 percent less energy than a typical hospital in the area.

Further Reading:
https://www.aia.org/showcases/76821-ng-teng-fong-general-hospital–jurong-commun
http://www.hok.com/about/news/2017/07/25/ng_teng_fong_general_international_academy_for_design_and_health_awards
https://www.archdaily.com/869556/aia-selects-top-10-most-sustainable-projects-of-2017/58f7c23ce58eceac31000615-aia-selects-top-10-most-sustainable-projects-of-2017-photo
http://www.topicarchitecture.com/articles/154396-how-modern-hospitals-recognize-the-impact-o

Eden Hall Farm, Chatham University

After receiving the donation of 388-acre Eden Hall Farm, 20 miles north, Pittsburgh’s Chatham University created a satellite campus centered around a sustainable living experiment. The university views the landscape—an agricultural area adjacent to an urban center—as critical to supporting cities of the future. The original buildings are complemented by new facilities for 250 residential students (and eventually 1,200), including a dormitory, greenhouse, dining commons, and classrooms. Students get hands-on experience in renewable energy systems—the campus generates more than it uses—sustainable agriculture and aquaculture, waste treatment, and water management. Now home to the Falk School of Sustainability, the farm is producing the next generation of environmental stewards, who follow in the footsteps of alum Rachel Carson.

Further Reading:
https://www.aia.org/showcases/76481-chatham-university-eden-hall-campus
http://www.chatham.edu/news/index.php/2018/01/chatham-views/from-eden-hall-pioneer-to-farm-manager
https://www.archdaily.com/869556/aia-selects-top-10-most-sustainable-projects-of-2017
https://falk.chatham.edu/masterplan.cfm

Milken Institute School of Public Health, George Washington University

At George Washington University’s Milken Institute School of Public Health, located in the nation’s capital, design embodies well-being. Built around an atrium that admits light and air, the structure encourages physical activity with a staircase that spans its eight levels. A green roof reduces storm runoff; rainwater is collected and stored for plumbing, resulting in a 41 percent reduction in toilet fixtures’ water use. Limestone panels (left) were salvaged from the previous building on the site. Materials used throughout the building contain recycled content.

Further Reading:
https://www.aia.org/showcases/71306-milken-institute-school-of-public-health
https://publichealth.gwu.edu/content/milken-institute-school-public-health-wins-excellence-architecture-new-building-merit-award
http://designawards.architects.org/projects/honor-awards-for-design-excellence/milken-institute-school-of-public-health-george-washington-university/

National Oceanic and Atmospheric Administration’s Inouye Regional Center

Located at the heart of Pearl Harbor, on Oahu’s Ford Island, the National Oceanic and Atmospheric Administration’s Inouye Regional Center repurposed two airplane hangars—which narrowly escaped destruction in the 1941 attack—linking them with a new steel and glass building (right). The research and office facility for 800 employees was raised to guard it from rising sea levels. Given the size of the hangars, daylight illuminated only a small fraction of the space, so specially crafted lanterns reflect sunlight further into their interiors. Necessity required invention: Due to anti-terrorism regulations, no operable windows were allowed in the space. Through a passive downdraft system that taps prevailing sea breezes, the building is completely naturally ventilated. The adjacent waterfront was returned to a more natural state with native vegetation.

Further Reading:
https://www.aia.org/showcases/76911-noaa-daniel-k-inouye-regional-center
http://www.hpbmagazine.org/NOAA-Daniel-K-Inouye-Regional-Center-Honolulu-Hawaii/
http://www.architectmagazine.com/project-gallery/noaa-daniel-k-inouye-regional-center_o
http://www.hok.com/design/type/government/national-oceanic-and-atmospheric-administration-noaa/

R.W. Kern Center

Serving as the gateway to Hampshire College, in Amherst, Massachusetts, the multipurpose R.W. Kern Center holds classrooms, offices, a café, and gallery space—and is the place where prospective students are introduced to campus. The school converted what was once an oval driveway into a wildflower meadow, now encouraging a pedestrian approach (seen above). The center is self-sustaining, generating its own energy through a rooftop solar array, harvesting its water from rainfall, and processing its own waste. Its gray water treatment system is in a pilot program for the state, and may pave the way for others.

Further Reading:
https://www.aia.org/showcases/76921-rw-kern-center
https://architizer.com/projects/rw-kern-center
https://www.hampshire.edu/discover-hampshire/rw-kern-center

Manhattan 1/2/5 Garage & Salt Shed

Two buildings belonging to New York City’s sanitation department redefine municipal architecture. Resembling a grain of salt, the cubist form of the Spring Street Salt Shed holds 5,000 tons for clearing icy streets. The Manhattan 1/2/5 Garage (background), whose floors are color-coded for each of the three districts, is home to 150 vehicles, wash and repair facilities, and space for 250 workers. The garage is wrapped in 2,600 aluminum “fins,” shading devices that pivot with the sun’s rays, reducing heat gain and glare through the glazed walls while still allowing views to the outside. Municipal steam heats and cools the building, so no fuels are burned. A 1.5-acre green roof reduces heat-island effect and filters rainwater. A condensate by-product of the steam is also captured, and, along with the rainwater, used for toilets and the truck wash. Combined with low-flow fixtures, the process reduced water consumption by 77 percent.

Further Reading:
https://www.dattner.com/portfolio/manhattan-districts-125-garage/
https://www.ohny.org/site-programs/weekend/sites/dsny-manhattan-125-sanitation-garage-salt-shed
https://www.aia.org/showcases/76671-manhattan-districts-125-garage–spring-stree
http://www.architectmagazine.com/project-gallery/manhattan-districts-1-2-5-garage-spring-street-salt-shed_o
https://www.burns-group.com/project/manhattan-125-garage-and-spring-street-salt-shed/

Starbucks Hillsboro, Oregon

Starbucks has been a leader in the development and implementation of a scalable green building program for over a decade .Starbucks joined the U.S. Green Building Council® (USGBC) in 2001 and collaborated with them to develop the LEED® for Retail program, an effort to adapt LEED (Leadership in Energy and Environmental Design) to new construction and commercial interior strategies for retail businesses. In 2008,Starbucks challenged themselves to use LEED certification not just for flagship stores and larger buildings, but for all new, company-operated stores. Many people, even internally, were skeptical, especially with Starbucks growth across the globe. But by collaborating with USGBC and other like-minded organizations, we have been able to integrate green building design not only into new stores but also into our existing store portfolio. Starbucks has also succeeded in providing a practical certification option for retailers of all sizes.

Further Reading:
https://www.starbucks.com/responsibility/environment/leed-certified-stores

The Edge, Deloitte

The Edge, located in Amsterdam, is a model of sustainability.is billed as the world’s most sustainable office building and has the certification to prove it. But, it’s more than that. The place is, well, fun. And interesting. And inviting. So much so that professionals are actually applying for employment with Deloitte Netherlands because they want to work in the building. That it has become a recruiting tool is a satisfying side effect of a project designed to both redefine efficiency and change the way people work. “We wanted to ensure that our building not only had the right sustainability credentials, but was also a real innovative and inspiring place for our employees,” says Deloitte Netherlands CEO Peter Bommel.

Read the rest of this entry »


High Performance Building Design

Green-Building

970 Denny, a residential high-rise under construction in South Lake Union, used early energy modeling to demonstrate that efficiency from the water source heat pump system would offset increased thermal loss from expansive glazing.

The Federal EPA has implemented several strategies to enhance sustainability, including:

  • Conducting retro-commissioning and re-commissioning to improve energy performance
  • Using the most efficient heating, ventilation and air conditioning equipment and lighting
  • Assessing for compliance with ventilation and thermal comfort standards
  • Installing renewable energy systems
  • Replacing plumbing fixtures with higher efficiency models
  • Installing advanced energy and water meters
  • Reducing irrigated landscape areas
  • Retrofitting buildings and landscapes with low impact development features
  • Using integrated pest management techniques
  • Contracting green cleaning services
  • Purchasing environmentally preferable materials
  • Implementing materials reduction, reuse, recycling and composting programs

Airtight construction controls the transfer of heat and moisture into and through the building envelope. Thermal bridge-free assemblies avoid the envelope penetrations that sap buildings of energy, comfort, and durability. Continuous insulation keeps heat where it’s wanted. Excellent windows and doors limit heat loss while capturing daylight and passive solar energy. Shading elements shield the building from passive solar gains when unwanted. And a constant supply of filtered fresh air comes in through a balanced heat recovery (or energy recovery) ventilation system that recaptures the thermal energy of exhaust air and keeps it inside the building. “Envelope-first” focus design consideration dramatically reduces the energy demand to heat and cool high-performance building. In fact, Passive House buildings routinely reduce heating and cooling energy by up to 90%.

(Source: https://hammerandhand.com/field-notes/what-is-high-performance-building)

Green-Building-WorldThe research will further build on the results of the Well Living Lab’s latest study findings, published in Building and Environment. The study found that temperature, noise, and lighting in open office environments affect employees’ ability to get work done. This was a proof-of concept study that demonstrated the strength of living lab methodology in measuring realistic occupant responses to select environmental changes in an open office. Specifically, it indicated that employees are most sensitive to thermal conditions, followed by work-related noise such as conversations and lack of natural light from windows when working in open office environments. These factors affected work environment satisfaction, productivity, and even carried over into the mood of employees and their sleep.

(Source: https://facilityexecutive.com/2018/03/indoor-environments-impact-on-wellness-to-be-studied)

Further Reading:

Goining-Green-QuestionWe would love to hear from you on what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
FRANK CUNHA III
I Love My Architect – Facebook


Creating High Performance Buildings through Integrative Design Process

The “High Performance by Integrative Design” film by RMI includes examples of how design teams collaborate in new ways to integrate high-performance design elements, such as daylighting, energy efficiency and renewable energy, for optimal performance. Viewers experience charrette discussions and see the design process unfold on projects such as the Empire State Building retrofit, Missouri Department of Natural Resources, Phipps Conservancy in Pittsburgh, the Desert Living Center in Las Vegas, Willow School in New Jersey and Chicago Botanic Gardens.

Typical Design & Construction Process

Conventional planning, design, building, and operations processes often fail to recognize that buildings are part of larger, complex systems. As a result, solving for one problem may create other problems elsewhere in the system.1

Integrative Design & Construction Process

Collaboration leads to innovation

An integrated design process (IDP) involves a holistic approach to high performance building design and construction. It relies upon every member of the project team sharing a vision of sustainability, and working collaboratively to implement sustainability goals. This process enables the team to optimize systems, reduce operating and maintenance costs and minimize the need for incremental capital. IDP has been shown to produce more significant results than investing in capital equipment upgrades at later stages.2


As discussed in a previous post, the integrated process requires more time and collaboration during the early conceptual and design phases than conventional practices. Time must be spent building the team, setting goals, and doing analysis before any decisions are made or implemented. This upfront investment of time, however, reduces the time it takes to produce construction documents. Because the goals have been thoroughly explored and woven throughout the process, projects can be executed more thoughtfully, take advantage of building system synergies, and better meet the needs of their occupants or communities, and ultimately save money, too.3


Considerations and Advantages of an Integrative Design Process:

  • ID&CP processes and strategies can be implemented to varying degrees depending upon the complexity of a project and an owner’s project goals.
  • A project team must be carefully assembled very early on in the process to ensure success.
  • All key participants must subscribe to the collaborative effort of establishment clear goals.
  • All project stakeholders must be involved and remain involved in the project, and must communicate openly and frequently.
  • Key participants must employ appropriate technology to foster collaborative design and construction.

Similar to the Construction Management at Risk approach to project delivery, the owner can benefit from the following IPD advantages:

  • Owner receives early cost estimating input, sometimes as early as conceptual design.
  • The owner can take advantage of special services such as:
    • Feasibility studies
    • Value engineering
    • Life cycle costs
    • Identification of long-lead items and their pre-purchase
  • Significant time can be saved because the design effort is emphasized and completed earlier in the process, and because construction can begin before the design is fully complete.
  • Architectural and engineering fees can be reduced by the early involvement of the specialty contractors.
  • Construction costs are minimized by incorporating constructability reviews into the process, and by the designers incorporating materials, methods, and systems that the team knows are more cost effective.
  • Operating costs can be reduced by providing opportunities to greatly affect long-term energy and resource use through design.
  • Capital costs can be reduced, thanks to clearer and better coordinated construction documents, which should minimize the incidence of change orders that impact both cost and time.
  • Misunderstanding between the parties is minimized when the IPD Team works together during the planning stages of the project.
  • The owner’s risk is minimized as the IPD Team approach tends to focus on early identification of potential conflicts and issues through the utilization of modeling tools. This early identification results in timely problem solving and resolution of issues through the use of models, as opposed to problem solving in the field and constructed environments.


We would love to hear from you on what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
FRANK CUNHA III
I Love My Architect – Facebook

Gift Ideas from ILMA


Our Exclusive ILMA Interview with Matthew B. Jarmel, AIA, MBA of @JarmelKizel

Mr. Jarmel is an Architect, Real Estate Developer, Renewable Energy Enthusiast, Entrepreneur and Owner of Jarmel Kizel Architects and Engineers Inc.

He received a Bachelors of Architecture from NJIT in 1990 and an MBA from Rutgers University in 1994. He can be found online at the following social media sites: LinkedIn, Facebook and Twitter.

About the Firm

Since the firm’s founding in 1975, Jarmel Kizel has worked its way from the inside out; originally concentrating on the interior design of corporate offices and since has grown into a full-service Architectural, Engineering, and Interior Design firm that provides a single point of accountability for all aspects of design services. The firm’s size and abilities enable it to handle a broad spectrum of projects while allowing the principals to put their seal on every one. With in-house Civil, Structural, Mechanical, Electrical, Plumbing and Fire Protection Engineering, clients can look to Jarmel Kizel to have all aspects of their projects designed and managed by one firm.

Today the firm provides a unique service platform that provides a single point of accountability for architectural and engineering services formatted to assist clients with managing their project’s design needs from site design and land entitlements to building design through construction oversight.

ILMA INTERVIEW

When and why did you decide to become an Architect?     

I knew when I was in Junior High School that I wanted to become an architect.  I grew up in the industry in that my father is a commercial interior designer, he actually founded our firm in 1975, and I was exposed to design and construction at a very early age.  My dad totally remodeled our home and he had my brother Richard, who is a civil engineer and partner in our firm, and myself helping and working with tools. 

What were some of the challenges of achieving your dream?  

The architectural and engineering industry can be very rewarding.  There is tremendous emotional fulfillment to see your ideas first take shape on paper and then through construction.  I take great pride driving by a building our firm has designed and saying we did that.  Despite the rewards the business of architecture can be very difficult.  Our industry is first hit by a recession, hardest hit and usually the last to recover.   One of the greatest challenges of working in the profession is learning how to batten down the hatches and weather the economic storms when they come. 

Any memorable clients or project highlights?  

I have many projects I am proud of many clients that I respect and that have become good friends and even partners over the years.  Some of the more notable projects I have worked on include designing the Bear Stearns Campus in Whippany, NJ.  This project was developed over years and ultimately included approximately 700,000 sf of office and data center space in five buildings, two of which we designed and the rest we designed major renovations to.  Unfortunately Bear Stearns does not exist anymore but the campus is still there.  We also were fortunate to design the first major redevelopment project in Plainfield, NJ where we designed four buildings for the Union County Improvement Authority that included a 100,000 sf office building, two retail buildings totaling 40,000 sf and a parking structure.   This project acted as a catalyst for new development in the city.   Over the last several years the firm has been very active in NYC designing many mixed use large scale projects, we have a 17 story building under construction in Queens right now.   One of my most memorable clients is The Learning Experience.   The Learning Experience is a national and soon to be international brand of child development centers.  We designed their first center 16 years ago and have since completed over 200 projects throughout the country for them.  Because of the volume of projects we have completed for them, about 70 in NJ alone, I gained tremendous experience in land entitlements and have become an expert in land entitlement strategy.

How does your family support what you do?    

The creative process can be very time consuming, running a business and being creative magnifies the time required to be an architect.  Some days I leave the house at 7 and if I have a hearing don’t get home until midnight.   Other times I am hopping on an airplane and away overnight.   My family is supportive in that they understand the taxing requirements of the job.   With that said everything I do is for my family.  So I make sure my wife and children get the attention they need from me and we plan as much quality time as possible.

How do Architects measure success?     

Some might say you measure the success of an architect by the quality and aesthetic of the buildings he or she designs, or by how much wealth and fame they have obtained.  To me a successful architect you have to be a strong leader, a strong communicator and be able to balance the aesthetic and technical issues of a building’s design all while understanding the functional and economical goals of your client.  The architect that can achieve this can become successful.  Ultimately success is measured by obtaining the respect of your peers, clients and even contractors in the industry.  

What matters most to you in design?      

Achieving my clients goals of function and budget while creating a building that is safe and attractive.   

What do you hope to achieve over the next 2 years? 5 years?  

Our firm has developed strong skills in real estate development which include land entitlements and real estate economics.   Many times we set the strategy for how to present a project to planning and zoning boards, explain the process to our clients and even their attorneys, advise on PILOT and other incentives, building valuation and assist in making introduction to equity investors and lenders.   These skills make us stand out from our competitors but not necessarily obtain higher fees.  Our goal for the next 2 to 5 years is to expand our Real Estate Advisory services to create additional revenue as a “Fee Developer” and on our own development account.

Who is your favorite Architect? Why?     

I respect the design styles of many current and historic architects.  I am a big fan of the Chicago School and of those architects Louis Sullivan is probably my favorite.  I like this style for the buildings of the time were the first commercial buildings and first to break away from using ancient detailing by employing and emphasizing technology in design.

Do you have a coach or mentor?

I do not have a specific coach or mentor but I like to bounce ideas off of my team, clients and friends.  

What is your favorite historic and modern (contemporary) project? Why?  

My favorite historic building is the Roman Pantheon.  It was built around 113 AD and has the largest unreinforced concrete dome ever made which has a giant hole in the center that allows the sun and the moon to shine in along with the rain.  It still stands 2000 years later.  The Romans were great builders, they invented concrete, experimented with reinforcing concrete with brass chains and even developed zoning rules and regulations.   As far as contemporary buildings there are so many that I love.   I lean towards high rise sky scrapers

Where do you see the profession going over the next few decades?

Although new technologies are implemented in the profession and we go through these stages where we preach design build vs a separation between design and construction professionals the industry has not changed much in my career.  I find it interesting that Ayn Rand’s “The Fountainhead” which was written in the 40’s and takes place in the 20’s and uses the architectural industry as a back story to promoting her political views speaks to many of the same type of players and issues in the industry today.  There are developers, contractors, politicians and architects.  There are residential, public and commercial buildings and she even tackles issues such as affordable housing.  All the same issues we deal with today.   I do not see major changes in the business of the profession.  Although I do see major technical influences which will affect the way we design and build buildings.  There is a robot that lays brick now.  I think as the world gets smaller through technology building codes and licensing laws will become more standardized.

What type of technology do you see in the design and construction industries?

The use of BIM is becoming the most prevalent tool used in the design of buildings.  It allows architects and engineers to work in 3 dimensions, quickly and efficiently to improve coordination and actually see the building take shape on the screen.  Despite my comment about the brick laying robot above most construction is still done with heavy machinery and by hand.  However, technology has taken over the management of projects from creating schedules, to tracking financing and creating a database of information.  

Who / what has been your greatest influence in design?      

This answer may seem odd to most architects but my great influence in design arrives from an understanding of real estate economics tied to a building’s function and economics.   When a student at NJIT I took an elective in real estate development.  It was taught by a gentleman who ran the development arm of a now defunct savings and loan so we will allow him to remain nameless.  However, he was very influential in that he said he hated architects and found them to be a necessary evil in the process because the law forced them on him to use.  Obviously, this got most of the students in the class upset but I wanted to know why he felt that way.  He thought that architects only cared about what the building looked like and had no understanding or really care for what it might cost to build, what’s its function was to be or how it generated revenue for its owners.  He introduced me to the business side of why clients build in the first place.  This motivated me to go on and obtain an MBA with a concentration in real estate development and urban land use after architectural school.  I feel that the business education in conjunction with my architectural education make me a stronger architect and have been the most influential on my design.

Which building or project type would you like to work on that you haven’t been part of yet?     

I have been fortunate to work on almost any type of commercial project.  I would like to be exposed to more hospitality projects.

How do you hope to inspire / mentor the next generation of Architects?   

I hope to mentor the next generation of architects in a way that they can understand the business goals of the client and why they are building so that they can better respond to the client’s needs I also want to mentor them to be strong leaders and great communicators.

What advice would you give aspiring architects (K-12)? College students? Graduates?

I would advise them to not only pursue their dream of designing buildings but to learn about the profession as a whole, to learn about the process of becoming an architect and career choices in the industry.  When I was in school no one told me how to become a licensed architect I had to figure it out on my own.

What does Architecture mean to you?     

It is my profession, it is my life!

What is your design process?     

First understand the client’s program goals and budget, then study the site and zoning constraints, roll up my sleeves and dive in.

If you could not be an Architect, what would you be?     

A civil engineer and or real estate developer.

What is your dream project?     

A really tall building in a major city that becomes a landmark for years to come.  If I can be a partner in its ownership even better.

What advice do you have for a future Executive leader?     

Respect and care about the people you are leading, be kind but stern.

What are three key challenges you face as a leader in business today and one trend you see in your industry?     

All challenges revolve around people.  First finding qualified people, there is a tremendous shortage of qualified architects and engineers, second finding people that can see the big picture first before the crawl into the details and finally finding people that can communicate effectively.   As far as trends see my answer to where I see the industry going above

What one thing must an executive leader be able to do to be successful in the next 3 years?      

I am optimistic that we are at the beginning of a sustainable economic growth period.  This will provide many of us with significant projects to choose from and an even more challenging labor shortage.  An executive leader will need to be able to recruit talent and keep them motivated to stay.

What are some executive insights you have gained since you have been sitting in the executive leadership seat – or what is one surprise you have encountered as the world of business continues to morph as we speak?     

I do not know if I am any smarter today at 50 then I was when I got out of school in my early 20’s what I have gained is life experience.  The most important lesson is that people will surprise you. Some will impress you, some will disappoint you, some will be loyal and others not.  I have seen some crazy things happen some good and some bad.   Just when I think I have seen everything someone surprises me. 

Final Thoughts on How to Be Successful?      

Learn your trade, be good at and then learn to be a good communication and leader and business person.

For more exclusive ILMA interviews click here.

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments – and – if you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
FRANK CUNHA III
I Love My Architect – Facebook

Gift Ideas from ILMA


An Exclusive Interview with Architect @FrankCunhaIII

Frank-ModernHouse.jpg

Ask the Architect

An Exclusive Interview with Architect Frank Cunha III

by Denise Franklin 

Follow Denise Franklin on Twitter

Frank Cunha III, AIA, NCARB is a Registered Architect licensed in CT, DC, DE, FL, MD, NJ, NY, PA and is currently seeking reciprocity in VA as well.  Mr. Cunha is the founder of FC3 Architecture + Design, established in 2005 to serve its clients in various markets, including commercial and residential projects. He writes / blogs for I Love My Architect and Just Architecture.

You can find him online at:

  What was it about Architecture that helped you decide it was the field for you?

I always loved to draw as a child and I always loved to build.  Give me scraps of cardboards and leftover bricks and sticks in the backyard and my imagination would take over.  I was always fascinated with churches and castles.  They have a very obvious Archetype, and from a very early age I always imagined that I too would be able to one day shape the design of our cities and how people inhabit them.  Even when I travel, it is the Architecture that defines the people and the place (unless you are in the wilderness, where nature rules supreme).  In the city, man (men and women) are able to shape the world we live in.  With this ability comes great responsibility not just freedom to do whatever we want.  The industrial and post-industrial eras have taught us that!

FC3 Interview 03

How long have you been in the profession?

 After 5 years of Architecture school and after 3 years of internship and after passing my NCARB IDP Architecture Exam I “officially” became a Registered Architect in January 2004.  It was not easy but it was worth it.  Going through the arduous process allowed me to learn the different aspects of being an Architect.

FC3 Interview 04

It appears that Architecture incorporates many fields of study, for example; astronomy, meteorology, geography and I am sure there is much more.  Could you explain?

FC3 Interview 05

Throughout history, especially before technology and social media distractions, civilizations, would honor the heavens by building monuments.  Examples of this can be seen all over the world and there are plenty of interesting websites that address this. 

Astronomy is one of the oldest sciences so it is no wonder that early civilizations would use the mathematics from the heavens to orient their buildings and monuments. Many pre-historic cultures left behind astronomical artifacts such as the Egyptian and Nubian monuments, and early civilizations such as Babylonians, Greeks, Chinese, Indians, and Maya performed methodical observations of the night sky. Climatology, the study of atmospheric science, is another extension coming out from Astronomy. In Architecture both the disciplines that is astrology and climatology, leads to a concept known as Vastu.

If you want to learn more about these interdisciplinary studies, you can click here or click here.  

FC3 Interview 06

FC3 Interview 07

Today, Architects still consider orientation when placing a building and the building components on the site. The building’s orientation can even help Architects obtain LEED credits from the US Green Building Council, an organization that promotes sustainable design and construction around the world.

 Is there a deciding factor for you when agreeing to take part in projects?

FC3 Interview 08

 One thing I have learned over the past 15 years in the field of Architecture is that there are many components to accepting and working on a project.  While we all need to make money to eat and survive, here are a few things that should be considered before agreeing to take on a project:

  1. Is there a chemistry between the client and the designer, i.e., do you like each other? Can you work well together?
  2. Is the project exciting and challenging?
  3. Can I assemble the right team to complete the project effectively? And do we have the right fee to allow our design team to perform the project effectively?

If the answer to any of these is “no” then I keep looking for another opportunity.  Every time an opportunity passes, two or more new ones appear.  Don’t be hasty just for the sake of getting a project!

 The projects you are sharing today are they based on specific concepts?

 As a young Architect my aesthetic and design concepts are still evolving.

Although we do not force my designs on my clients, we do have some underlying principals we like to maintain on our projects whenever feasible.  

FC3 Architecture takes a Holistic approach to each individual project to meet the client’s specific needs.   We work with our team of expert consultants to bring the most value to the client through rigorous, integrated design practices.  It is our mission to explore and develop the “Architectural Design Aesthetics” & “Building Tectonics  Systems” to engage the following issues on a project-by-project basis, where applicable, to discover and address the project requirements established by the client and the Architect during the Pre-Design phase:

  • Program / Livability / Functional
  • Provide efficient space planning to maximize client’s programmatic needs (don’t over build)
  • Contextual/Site 
  • Determination of most effective use of a given site
  • Optimize access to the site
  • Maximize land, views, lighting, wind, water elements, other natural features, etc.
  • Provide guidance for best use of materials, structure, and form
  • Properly integrate new design into existing contextual surroundings
  • Sustainable / Environmental
  • Coordinate with client’s abatement team when required
  • Coordinate with client’s commissioning team when required
  • Provide guidance and integration on current sustainable trends
  • Sustainable Design
  • Energy Use & Conservation
  • Waste Management
  • Selection of Materials – Reuse, Recycling, Renewable sources, etc.
  • Water Use & Conservation
  • Structural / Tectonic
  • Coordinate with structural team to develop integrated structural design
  • Coordinate with MEP team to develop integrated MEP design
  • Coordinate with other industry experts as needed to meet project goals
  • Historic / Preservation
  • When required, document and research preservation of historic elements
  • Provide design details that are sensitive to preexisting building/site elements
  • Engage our expert consultant team as may be required
  • Economic / Legalization
  • Provide assistance in developing a feasibility study
  • Assist client’s legal counsel with Planning/Zoning Board approvals
  • Constructability / Management
  • Assist client with project schedules and budgets throughout the project
  • Engage our expert construction/project management team as may be required

Frank-ModernHouse-02.jpg

For anyone in school considering Architecture as a profession, check out this great article by my colleague, William Martin, AIA.

Click here to see some of Frank’s recent featured projects.

Click here to read more “Ask the Architect” articles.


#EcoMonday Contemporary Mediterranean Home With a “Breathing” Eco-Façade

Breathing House 14

Excerpt from “Freshhomes Design & Architecture”: Travessa de Patrocinio is one of those bohemian places in Lisbon that require a sweet disposition while visiting. The unique collaboration between these three designers, Luís Rebelo de AndradeTiago Rebelo de Andrade and Manuel Cachão Tojal, gave birth to a project inspired by minimalism, with an interesting Mediterranean “coverage”. Imagine a thick “coat” of plants shadowing the entire façade of a house that spreads vertically. “Its walls are completely covered with vegetation, creating a vertical garden, filled with around 4500 plants from 25 different Iberian and Mediterranean varieties which occupies 100 square meters. So, short levels of water consumption are guaranteed as well as little gardening challenges.”  Click here to read the rest of the story.

Breathing House 00

Breathing House 0

Excerpt from Architizer News: The House in Travessa do Patrocínio by RA\\ ( Luís Rebelo de Andrade, Tiago Rebelo de Andrade, Manuel Cachão Tojal) does just that. The narrow townhouse is situated smack dab in Lisbon, in a neighborhood with little access to green spaces. To compensate for this lack, the architects draped the house with lush green facades that cover 100 square-meters of wall space. But this isn’t your run-of-the-mill green building accessory. The facades are integral components to the architecture, not just tacked on for a higher LEED score. They’re planted with approximately 4,500 plants sourced from 25 different local varieties, which  all require little maintenance. The result is a vertical garden that the architects say functions as an urban “lung” within the pavement-heavy area, helping to rid the residential street of excess noise, carbon, and other pollutants floating about. Click here to read the rest of the story.
Breathing House 13

Breathing House 16 Breathing House 15 Breathing House 13 Breathing House 12 Breathing House 11 Breathing House 10 Breathing House 09 Breathing House 08 Breathing House 07    Breathing House 03 Breathing House 02 Breathing House 01

A Brief History of Green Walls

The concept of green walls is an ancient one, with examples in architectural history
reaching back to the Babylonians – with the famous Hanging Gardens of Babylon, one
of the seven ancient wonders of the world. Highlights of the history of green walls are
provided below:

  • 3rd C. BCE to 17th C. AD: Throughout the Mediterranean, Romans train grape vines (Vitis species) on garden trellises and on villa walls. Manors and castles with climbing roses are symbols of secret gardens.
  • 1920s: The British and North American garden city movement promote the integration of house and garden through features such as pergolas, trellis structures and self-clinging climbing plants.
  • 1988: Introduction of a stainless steel cable system for green facades.
  • Early 1990s: Cable and wire-rope net systems and modular trellis panel systems enter the North American marketplace.
  • 1993: First major application of a trellis panel system at Universal CityWalk in California.
  • 1994: Indoor living wall with bio-filtration system installed in Canada Life Building in Toronto, Canada.
  • 2002: The MFO Park, a multi-tiered 300’ long and 50’ high park structure opened in Zurich, Switzerland. The project featured over 1,300 climbing plants.
  • 2005: The Japanese federal government sponsored a massive Bio Lung exhibit, the centerpiece of Expo 2005 in Aichi, Japan. The wall is comprised of 30 different modular green wall systems available in Japan.
  • 2007: Seattle implements the Green Factor, which includes green walls.
  • 2007: GRHC launches full day Green Wall Design 101 course; the first on the subject in North America.
  • 2008: GRHC launches Green Wall Award of Excellence and Green Wall Research Fund.

Source: GreenScreen

Biofiltration

An ‘active’ living wall is intended to be integrated into a building’s infrastructure and designed to biofilter indoor air and provide thermal regulation. It is a hydroponic system fed by nutrient rich water which is re-circulated from a manifold, located at the top of the wall, and collected in a gutter at the bottom of the fabric wall system. Plant roots are sandwiched between two layers of synthetic fabric that support microbes and a dense root mass. These root microbes remove airborne volatile organic compounds (VOCs), while foliage absorbs carbon monoxide and dioxide. The plants’ natural processes produce cool fresh air that is drawn through the system by a fan and then distributed throughout the building. A variation of this concept could be applied to green facade systems as well, and there is potential to apply a hybrid of systems at a large scale.

Source: GreenScreen

Public Benefits of Green Walls

Breathing House 101b

Source: GreenScreen

Private Benefits of Green Walls

Breathing House 101a

Source: GreenScreen

Also Check Out:

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments.

If you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
Frank Cunha III
I Love My Architect – Facebook

FC3 ARCHITECTURE+DESIGN, LLC
P.O. Box 335, Hamburg, NJ 07419
e-mail: fcunha@fc3arch.com
mobile: 201.681.3551
direct: 973.970.3551
fax: 973.718.4641
web: http://fc3arch.com
Licensed in NJ, NY, PA, DE, CT.


What is a High Performance School?

Ask the Architect


by Frank Cunha III

What is a High Performance School?

A “High Performance School” is a well-designed facility can enhance performance and make education more enjoyable and rewarding. A “High Performance School” is healthy and thermally, visually, and acoustically comfortable. It is also energy, material, and water efficient. A “High Performance School” must be safe and secure; easy to maintain and operate; commissioned; environmentally responsive site. Most of all a “High Performance School” is one that teaches and is a community resource. It should also be stimulating as well as adaptable to changing needs.

Improved Student Performance

Evidence is growing that high performance schools can provide learning environments that lead to improved student performance.  Recent studies show that effective daylighting has contributed to improved student test scores by 10-20%. Intuitively quieter, comfortable classrooms with good lighting and good air quality yield better students/teachers. Low- and no-emission building materials can reduce odors, sensory irritation, and toxicity hazards. Efficient windows also reduce outside noise distractions. Improved heating and cooling systems permit students to hear the teacher better and avoid room temperature swings. Adequate lighting improves students’ ability to read books and see the blackboard. Considerations for “High Performance Schools”include: siting; indoor environmental quality; energy; water; materials; community; faculty and student performance; commissioning; and facilities performance evaluation.

 Siting

Siting is critical for “High Performance Schools” with regards to the environment, energy consumption, and indoor environmental quality, transportation, greenfields, endangered species, wetlands concerns, existing pollution on the site, and stormwater management. A key factor in site design is orientation of the building, which can influence passive heating, natural ventilation, and daylighting. Optimal orientation can reduce year-round heating and cooling costs and optimizes natural lighting. If possible orient buildings so that the majority of windows face either north or south. Strategic placement of vegetation can be used when this orientation cannot be utilized.

Positive affects on the energy and environmental performance of a school include primary consideration for the environmentally sound school building. A school building should complement its environment. Working around existing vegetation to shade building and outside cooling equipment to reduce HVAC load help ensure good environmental performance of school by lowering energy bills and reducing local pollution. Locating a school near public transportation and within walking distance to a majority of students will further reduce energy use, while lowering local traffic and pollution.

Stormwater management is vital to safety and ecological health of a school’s site. Moving stormwater quickly to gutters, downspouts, catch basins, and pipes increases water quantity and velocity requiring large and expensive drainage infrastructure. Water should be captured in cisterns and ponds, or absorbed in groundwater aquifers and vegetated areas. Remaining water runoff should be slowed down and spread across roof and paved surfaces evenly before entering bioswales and creeks. Perforated drainpipe and filters, and “Green” roofs promote water absorption.

“High Performance Schools” promote student safety and security. Visibility of school entrances from main office and general accessibility of the school grounds can affect security. Lighting quality in halls and corridors is also critical.

Indoor environmental quality (IEQ)

“High Performance Schools “ optimize IEQ by considering it throughout the design and construction process. IEQ includes indoor air quality; acoustics; daylighting; lighting quality; and thermal comfort. Benefits include: reduction in student and teacher absences; increase student performance; reduction of illnesses related to indoor toxins; improved teacher retention rates; reduced distractions; improved comfort levels; and maintenance of healthy students, teachers and staff.

Proper siting contributes to positive daylighting potentials and acoustics. Building envelope design affects thermal comfort, daylighting, and indoor air quality. Material choices can also have a positive affect on IEQ. Construction process and the operations and maintenance affect Indoor Air Quality. Key elements of building’s indoor environment affecting occupant comfort and health include: Thermal comfort – temperature, radiant heat, relative humidity, draftiness; light – amount and quality, lack of glare, direct sunlight; noise – levels and kinds, classroom acoustics, inside and outside sources; ventilation, heating & cooling – fresh air intake, re-circulation, exhaust; microbiologic agents – infectious disease, mold, bacteria, allergens; and chemical agents in air or surface dust –volatile organics (formaldehyde), pesticides, lead, asbestos, radon;

Ill health effects associated with poor IEQ can cause students, teachers, and administrative staff to experience a range of acute or chronic symptoms and illnesses including: headaches and fatigue (from VOCs and glare); irritation of eyes, nose, and throat (from VOCs, particles, low relative humidity); respiratory symptoms – allergic reactions (from mold, animal allergens, dust mites); breathing difficulties – increase in asthma symptoms (from allergens, particles, cold); increased transmission rates of colds and flu’s (due to poor ventilation); and poor IEQ can also lead to excessive exposure of classroom occupants to some carcinogens.

Important decisions school designers should pay particular attention to key buildings elements: building materials and surfaces (low-emitting for chemicals); ventilation systems (quiet, efficient filters, adequate fresh air); fenestration (adequate and operable windows); site drainage; envelope flashing and caulking; ande ase of maintenance for building components (e.g., floor cleaning, filter changing).

Common IEQ problems in classrooms include: excessive levels of volatile organic compounds, like formaldehyde, which can cause eye, nose, and throat irritation and pose cancer risks (these compounds are emitted from new pressed wood materials, and in some other building materials and furnishings, especially in new or remodeled classrooms); although classrooms have individual control of HVAC systems, these systems are often noisy and are not continuously operated (causing large swings in both temperature and humidity levels, and allowing indoor air pollutant levels to build up); moisture problems are sometimes present in roofing, floors, walls, and exterior doors; operable windows are often small or absent; siting can be problematic relative to pollutant and noise sources, poor site drainage, and shading.

Energy

It is critical to manage and conserve natural resources in “High Performance Schools.” This can be done by reducing carbon dioxide emissions by using renewable energy resources; integration of concerns with design process; building siting and orientation; buildings shape; and landscaping; lighting, heating, cooling and ventilation sources. Integrated design can yield long and short-term savings. Reduced heat from an energy efficient lighting system and good natural ventilation designs can reduce the cooling demand, and thus the size and cost of the air conditioning units. All members of the design team should meet early on in the planning process and continue to coordinate integrated design concepts throughout the project in order to reduce energy costs.

The end result of integrated design is reduced overall energy consumption, thus saving construction costs through the downsizing of the systems and on-going costs of operation through reduced utility bills.
Many programs are available to help schools build energy-efficient facilities. Educate students about energy issues and to install renewable energy systems in schools. By taking advantage of these programs, schools can realize cost savings, better educate their students and help to ensure a cleaner, more stable environment for the future.

During the rush to construct new school buildings, districts often focus on short-term construction costs instead of long-term, life-cycle savings. The key to getting a high-performance school is to ask for an energy-efficient design in your request for proposals (RFP) and to select architects who are experienced in making sure that energy considerations are fully addressed in design and construction. Unless a school district directs its architect to design energy-efficient buildings, new schools may be as inefficient as old ones, or they may incorporate only modest energy efficiency measures.

Total construction costs for energy-efficient schools are often the same as costs for traditional schools, but most architects acknowledge a slight increase in the capital costs maybe necessary (as some energy efficient building features may cost more.) Efficient buildings have reduced building energy loads and take better advantage of local climate. A properly day lit school, for example, with reduced electrical lighting usage and energy efficient windows can permit downsized cooling equipment. Savings from this equipment helps defer costs of daylighting features. Even when construction costs are higher, resulting annual energy cost savings can pay for additional upfront capital costs quickly.

Older “cool” fluorescents had low quality of light that gives human skin a sickly bluish color. Newer fluorescent lights are both higher light quality and higher efficacy. Daylight, the highest quality of light, can help reduce energy use if the lighting system is properly integrated, with ambient light sensors and dimming mechanisms.

Daylighting

The design and construction of a school’s daylighting systems can cost more money. Properly day lit school (with associated reduced electrical lighting usage) can lead to downsized cooling equipment. The savings from this smaller equipment helps defer the costs of the daylighting features. Hiring an architect or engineering firm that is experienced in good daylighting design, especially in schools, will minimize any additional costs from the design end of a project. As with any building feature, effective daylighting requires good design.

Today’s window technology and proven design practices can ensure that daylighting does not cause distributive glare or temperature swings. Exterior overhangs and interior cloth baffles (hung in skylight wells) eliminate direct sunlight, while letting evenly distributed daylight into rooms. “Daylight” is in effect controlled “sunlight” manipulated to provide useful natural light to classroom activities. Moreover, daylight by nature produces less heat than that given off by artificial lighting.

The application of daylighting without control of sun penetration and/or without photo controls for electric lights can actually increase energy use. Design for daylighting utilizes many techniques to increase light gain while minimizing the heat gain, making it different from passive solar in a number of ways. First of all, the fenestration (or glazing) of the windows is different.  In a day lit building, the glazing is designed to let in the full spectrum of visible light, but block out both ultra violet and infrared light. Whereas, in a passive solar building, the fenestration allows for the full spectrum of light to enter the building (including UV and Infra red), but the windows are designed to trap the heat inside the building. In addition, in day lit rooms, it is undesirable to allow sunlight in through the window. Instead, it is important to capture ambient daylight, which is much more diffusing than sunlight, this is often achieved by blocking direct southern exposure, and optimizing shaded light and northern exposure. Passive solar maximizes south facing windows, and minimizes north-facing windows, thus increasing heat gain, and minimizing heat loss.

Water

As population growth increases demand for water increases. A “High Performance School” must reduce water consumption and use limited water resources wisely. This can be achieved by utilizing: water-efficient landscape techniques; water-efficient fixtures and controls in indoor and outdoor plumbing systems. The largest use of water in schools is in cooling and heating systems (evaporative cooling systems, single-pass cooling systems, etc.), kitchens, maintenance operations, landscaping irrigation, locker rooms, and restrooms. Good landscaping design including specifying native plants, proper spacing, and low-flow irrigation (that runs at night) will reduce a school’s water demand and expenditures.

High-efficiency irrigation technologies such as micro-irrigation, moisture sensors, or weather data-based controllers save water by reducing evaporation and operating only when needed. In urban areas, municipally supplied, reclaimed water is an available, less-expensive, and equally effective source for irrigation. The siting of a school and the shape of the land upon which is resides have tremendous impact on water resources. Selecting drought-tolerant plants will naturally lessen the requirement for water. In addition, using mulch around plants will help reduce evaporation, resulting in decreased need for watering plants or trees.

Drip irrigation systems with efficiencies of up to 95% rather conventional spray systems with efficiencies of only 50 to 60%.

The treatment of sewage is a costly process taken on by the local utility at the customer’s expense. The wastewater is typically treated and released back to the environment. Waste materials extracted from the wastewater must be further disposed of according to local codes. Considering on site water treatment will reduce the load on the local utility, offer an opportunity for students to learn about the biological and chemical processes involved in water treatment, and reduce operational expenses by avoiding a utility bill.

Greywater is water that has been used in sinks, drinking fountains, and showers. Black water is water that has been used in toilets. Greywater is fairly simple and safe to clean and reuse, whereas there are more health risks associated with black water.

Materials

“High Performance Schools” utilize material efficiency, which includes durable, reused, salvaged, and refurbished or recycled content. Recyclable materials manufactured using environmentally friendly practices.

Material efficiency can often save schools money by reducing the need to buy new materials and by reducing the amount of waste taken to the landfill. “high Performance Schools can reduce the amount of materials needed by: reusing onsite materials; eliminating waste created in the construction and demolition process; choosing materials that are safe, healthy, aesthetically pleasing, environmentally preferable, and contain low embodied energy.

Waste reduction planning is essential for school districts. These wastes represent a significant loss of natural resources and school district funds as well as a potential threat to student/staff health and the environment. To be responsible stewards of environmental quality, school districts should review new school construction, processes and operations, and even curriculum choices and evaluate the economic, educational, and environmental benefits of implementing effective waste reduction measures. Incorporating waste reduction as part of the school district’s overall way of doing business can provide a number of important benefits: reduced disposal costs; improved worker safety; reduced long-term liability; increased efficiency of school operations; and decreased associated purchasing costs.

Building materials may have a number of associated operating costs beyond the straightforward, initial capital costs. Proper selection is essential to minimize these secondary costs. Building materials may pose future health hazards, costing schools absentee time and lost student and faculty productivity. Consider the dangers of volatile organic compounds, dust, and moisture when selecting materials. Keeping these indoor pollutants at a minimum will ensure a healthy indoor environment and improve the learning environment.

Consider also the composition of the materials and how recyclable, durable, and refinishable they are. Keeping each of these characteristics in mind when selecting materials, the building will provide better service and reduce maintenance and operating costs. Source building materials from local distributors and save transportation energy costs if possible.

Transportation costs are sometimes referred to as part of a material’s embodied cost (and energy). Purchase building materials with low embodied costs such as local regional certified wood harvested from sustainable and well-managed forests. Onsite waste reduction and reuse during demolition and construction can save money by reducing amount of money spent at landfill, and by reducing initial amount of money spent on new materials.  Save on labor costs by providing a Construction and Demolition waste plans before starting operations and identifying where to recycle materials and what materials to salvage.

Community

The location where a “High Performance School” is constructed impacts the surrounding community. It can affect pedestrian and automobile traffic; quantity and quality of open space in the neighborhood; location within the community; and may be used as a tool to revitalize a community.

Once the school site is determined, the school’s design, construction, and use should be considered. Aspects such as the exterior design, amenities that it may provide and environmental design features can be a source of pride to the community. Schools can be a center for teaching and learning, and also add functional value within the community by providing access to facilities and play fields, and services such as after-school daycare and extended education.

High performance design for schools can be a selling point in bond elections because energy, indoor air quality, and other improvements translate to more comfortable classrooms for students, reduced energy bills, and lower operating and maintenance costs. Schools become healthier learning environments, reduce waste, and have less impact on the environment. Good indoor environmental quality has been proven to increase average daily attendance of students.

Faculty & Student Performance in High Performance Schools

Challenges include: tight budgets; an ever-increasing student enrollment; growing need for the renovation and building of many schools; higher expectation of faculty and student performance among these compelling circumstances. Sustainable schools can have a favorable impact on the school’s budget; help protect our environment; and encourage better performance of faculty and students as a result of a better learning environment.

“High Performance Schools” integrate today’s best technologies with architectural design strategies to achieve a better learning environment. These include: lighting – integration of daylighting and electrical lighting technologies; reduced noise levels by using acoustic materials and low-noise mechanical systems; healthy air quality, temperature, humidity levels – indoor air quality; thermal comfort; HVAC systems; low-emission materials; and reduce distractions and create environments where students and teachers can see and communicate with one another clearly and comfortably.

Commissioning

Without properly commissioning a school, many sustainable design elements can be compromised. In the American Society of Heating Refrigerating and Air-Conditioning Engineers (ASHRAE) Guideline, The Commissioning Process is defined as follows: “The Commissioning Process is a quality-oriented process for achieving, verifying, and documenting that the performance of facilities, systems, and assemblies meet defined objectives and criteria. The Commissioning Process begins at project inception (during the pre-design phase) and continues for the life of the facility through the occupancy and operation phase. The commissioning process includes specific tasks to be conducted during each phase in order to verify that design, construction, and training meets the Owner’s Project Requirements.” By implementing a commissioning plan, a school can be sure that all of the systems function at optimum levels.

Facilities Performance Evaluation

Building and its systems are tested one year after completion and occupancy. Surveys are conducted to evaluate the satisfaction of occupants and maintenance and operations personnel. Alert school to system operational performance errors and potential hazards created by poorly operating systems. These problems can be corrected.

Data can be provided to school districts on what building attributes do and don’t work for their schools. Schools can develop guidelines and protocols that can help create better schools in the future.

Key Benefits of a High Performance School

Benefits include higher test scores, increased average daily attendance, increased teacher satisfaction and retention, reduced liability exposure, and sustainable school design.

Financing and incentives

Total construction costs for high performance schools are often the same as costs for conventional schools. Design costs may be slighting higher, but resulting capital and long-term operation costs can be lower. Properly designed day lit school with reduced electrical lighting usage can permit downsized cooling equipment. Even when construction costs are higher, resulting annual operational cost savings can pay for the additional upfront in a short period of time. High performance schools are falsely understood to be high-budget construction projects. Schools can find ways to finance a school beyond the State Allocation Board process. A collection of financial incentives in relation to energy, water, materials, siting, green building, landscaping and transportation from the Federal, State, Local, and Utility sectors may be available.

We would love to hear from you on what you think about this post.  We sincerely appreciate all your comments.

If you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
Frank Cunha III
I Love My Architect – Facebook

FC3 ARCHITECTURE+DESIGN, LLC
P.O. Box 335, Hamburg, NJ 07419
e-mail: fcunha@fc3arch.com
mobile: 201.681.3551
direct: 973.970.3551
fax: 973.718.4641
web: http://fc3arch.com
Licensed in NJ, NY, PA, DE, CT.

 


About FC3Architecture +Design LLC

Mission Statement:

FC3 Architecture takes a Holistic approach to each individual project to meet the client’s specific needs.   FC3 Architecture works with our team of expert consultants to bring the most value to the client through rigorous, integrated design practices.  It is our mission to explore and develop the “Architectural Design Aesthetics” & “Building Tectonics  Systems” to engage the following issues on a project-by-project basis, where applicable, to discover and address the project requirements established by the client and the Architect during the Pre-Design phase:

  -Program/Livability/Functional 

– Provide efficient space planning to maximize client’s programmatic needs

  -Contextual/Site 

– Determination of most effective use of a given site

– Optimize access to the site

– Maximize land, views, lighting, wind, water elements, other natural features, etc.

– Provide guidance for best use of materials, structure, and form

– Properly integrate new design into existing contextual surroundings

  -Sustainable/Environmental

– Coordinate with client’s abatement team when required

– Coordinate with client’s commissioning team when required

– Provide guidance and integration on current sustainable trends regarding:

– Sustainable Site Design

– Energy Use & Conservation

– Waste Management

– Selection of Materials – Reuse, Recycling, Renewable sources, etc.

– Water Use & Conservation

– Use & Conservation

-Structural/Tectonic

– Coordinate with structural team to develop integrated structural design

– Coordinate with MEP team to develop integrated MEP design

– Coordinate with other industry experts as needed to meet project goals

  -Historic/Preservation

– When required, document and research preservation of historic elements

– Provide design details that are sensitive to preexisting building/site elements

– Engage our expert consultant team as may be required

Economic/Legalization

– Provide assistance in developing a feasibility study

– Assist client’s legal counsel with Planning/Zoning Board approvals

  -Constructability/Management

– Assist client with project schedules and budgets throughout the project

– Engage our expert construction/project management team as may be required

Some more ideas.

Also Check Out:

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments.

If you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
Frank Cunha III
I Love My Architect – Facebook

FC3 ARCHITECTURE+DESIGN, LLC
P.O. Box 335, Hamburg, NJ 07419
e-mail: fcunha@fc3arch.com
mobile: 201.681.3551
direct: 973.970.3551
fax: 973.718.4641
web: http://fc3arch.com
Licensed in NJ, NY, PA, DE, CT.


@WJMArchitect Recognized for Green Architecture and Design

William Martin of Westwood received an award for his work on a Hillsdale home for a wounded soldier.

By Michelle Sartor

Westwood resident William Martin, who has been working as an independent architect since 1991, recently won an award for a sustainable home design he created for a wounded soldier.

The American Institute of Architects New Jersey Committee on the Environment (COTE) held its first competition this year to reward architects for outstanding sustainable designs. Martin submitted his project in the residential category and was named the winner in the COTE Top 10 Awards.

The design is for a home in Hillsdale that Martin did in conjunction with Homes For Our Troops. Wounded Iraq War Marine Corp. Cpl. Visnu Gonzalez lives in the home with his mother, Maria.

The home, which was constructed in 2009, has several green elements. It is LEED (Leadership in Energy and Environmental Design) Platinum Certified and is partially self-sustaining by creating its own renewable energy. The house has solar panels, geothermal heating and air conditioning, LED lighting and a mechanism for rain water capture and re-use.

Martin appeared on NBC News with Brian Williams for his efforts on the home. Click here to see the segment.

Click here to read the rest of the story.

Also Check Out:

We would love to hear from you on what you think about this post. We sincerely appreciate all your comments.

If you like this post please share it with friends. And feel free to contact us if you would like to discuss ideas for your next project!

Sincerely,
Frank Cunha III
I Love My Architect – Facebook

FC3 ARCHITECTURE+DESIGN, LLC
P.O. Box 335, Hamburg, NJ 07419
e-mail: fcunha@fc3arch.com
mobile: 201.681.3551
direct: 973.970.3551
fax: 973.718.4641
web: http://fc3arch.com
Licensed in NJ, NY, PA, DE, CT.


The 2030 Challenge for Planning @Arch2030

The built environment is the major source of global demand for energy and materials that produce by-product greenhouse gases (GHG). Planning decisions not only affect building energy consumptions and GHG emissions, but transportation energy consumption and water use as well, both of which have large environmental implications.

In 2008, Architecture 2030 issued The 2030 Challenge for Planning asking the global architecture and planning community to adopt the following targets:

  • All new and renovated developments / neighborhoods / towns / cities / regions immediately adopt and implement a 60% reduction standard below the regional average for fossil-fuel operating energy consumption for new and renovated buildings and infrastructure and a 50% fossil-fuel reduction standard for the embodied energy consumption of materials.
  • The fossil-fuel reduction standard for all new buildings, major renovations, and embodied energy consumption of materials shall be increased to:
    • 70% in 2015
    • 80% in 2020
    • 90% in 2025
    • Carbon-neutral in 2030 (using no fossil fuel GHG emitting energy to operate or construct).
      These targets may be accomplished by implementing innovative sustainable design strategies, generating on-site renewable power and/or purchasing renewable energy (20% maximum).
  • All new and renovated developments / neighborhoods / towns / cities / regions immediately adopt and implement a 50% reduction standard below the regional average for:
    • Vehicle Miles Traveled (VMT) for auto and freight and
    • water consumption.
Seattle 2030 District
White House Challenge’s Partners
Activating the District

Click here for more information on Architecture 2030.

What is The 2030 Challenge? @Arch2030

Architecture 2030, a non-profit, non-partisan and independent organization, was established in response to the climate change crisis by architect Edward Mazria in 2002. 2030’s mission is to rapidly transform the U.S. and global Building Sector from the major contributor of greenhouse gas emissions to a central part of the solution to the climate change, energy consumption, and economic crises. Our goal is straightforward: to achieve a dramatic reduction in the climate-change-causing greenhouse gas (GHG) emissions of the Building Sector by changing the way buildings and developments are planned, designed and constructed.

Buildings are the major source of global demand for energy and materials that produce by-product greenhouse gases (GHG). Slowing the growth rate of GHG emissions and then reversing it is the key to addressing climate change and keeping global average temperature below 2°C above pre-industrial levels.

To accomplish this, Architecture 2030 issued The 2030 Challenge asking the global architecture and building community to adopt the following targets:

    • All new buildings, developments and major renovations shall be designed to meet a fossil fuel, GHG-emitting, energy consumption performance standard of 60% below the regional (or country) average for that building type.
    • At a minimum, an equal amount of existing building area shall be renovated annually to meet a fossil fuel, GHG-emitting, energy consumption performance standard of 60% of the regional (or country) average for that building type.
    • The fossil fuel reduction standard for all new buildings and major renovations shall be increased to:
      • 70% in 2015
      • 80% in 2020
      • 90% in 2025
      • Carbon-neutral in 2030 (using no fossil fuel GHG emitting energy to operate).

These targets may be accomplished by implementing innovative sustainable design strategies, generating on-site renewable power and/or purchasing (20% maximum) renewable energy.

Click here for more information on Architecture 2030.