LEED BD+C V4.1- Foundation course - By USGBC Faculty

Explore the integrative process for LEED BD+C v4.1 projects, guiding energy and water strategy integration from discovery through occupancy, with early design, modeling, and performance feedback.

Explore the location and transportation category, and how compact development, alternative transportation, and access to transit, amenities, and safe pedestrian and bike networks reduce green gas emissions.

Explore LEED neighborhood development and transportation credits, combining smart growth, new urbanism, and green building to promote walkable, transit-accessible, healthy, and equitable communities; eligibility varies by LEED version and stage.

Explore LEED BD+C v4.1 sensitive land protection, avoiding development on sensitive lands such as prime farmland, floodplains, endangered species habitat, and water bodies; choose previously developed land or avoidance options.

Explore the high priority site credit, encouraging development in historic districts, priority designations, or brownfields to promote neighborhood revitalization and environmental remediation.

Explore how surrounding density and diverse uses promote walkability, reduce vehicle distance traveled, and improve public health. Learn how to demonstrate compliance.

Explore LEED BD+C v4.1 foundation: the access to quality transit credit promotes walkable, transit-oriented development near bus and rail stops, reducing motor vehicle use and emissions.

Implement a bicycle network, storage, and showers to promote cycling, reduce vehicle travel, and improve public health; connect to schools, workplaces, and transit within defined walking and biking distances.

Discover how the reduced parking footprint credit, worth one point, minimizes parking-related harms and promotes density, transit access, and demand-management strategies like car sharing and unbundled parking.

The green vehicles credit promotes alternatives to conventional cars, reducing emissions and health risks by rewarding parking for green vehicles and installing or preparing EV charging infrastructure.

Explore the sustainable sites category, restoring project sites, integrating with local ecosystems, protecting biodiversity, and using low impact development to manage runoff and protect open spaces.

prevent construction activity pollution by implementing an erosion and sedimentation control plan per the 2012 epa cgp. address erosion, sedimentation, waterways, and dust with five steps from review to monitoring.

Explain environmental site assessment as a LEED prerequisite for schools and healthcare projects, detailing phase one validity of 180 days, phase two, and remediation of contaminants to meet standards.

Protect or restore habitat through the site development credit by preserving undeveloped land and restoring soils, hydrology, and native vegetation on site, with options for on-site restoration or conservation funding.

Explore how the LEED BD+C v4.1 open space credit links 30% site open space to environmental and wellbeing benefits, with 25% vegetated or canopy and accessible, pedestrian oriented areas.

Mimic hydrology for rainwater management with green infrastructure and low-impact development, retaining runoff onsite and treating rain as a resource to protect water quality via permeable paving and rainwater tanks.

Explore the heat island reduction credit to minimize urban heat islands and their impacts. Learn strategies like shading, vegetated roofs, and high-reflectance roofing (SRI) to meet LEED requirements.

Learn how LEED light pollution reduction guides exterior lighting to protect night skies, wildlife, and human health by reducing backlight, glare, and trespass across zoning and lumens limits.

Guide schools with a site master plan that enables cohesive, long-term sustainable development, outlining future construction, parking, and utilities while achieving credits like rainwater management and heat island reduction.

Outline tenant design and construction guidelines to implement sustainable features in tenant improvements, align with core and shell design, and reduce energy and resource use for LEED interior credits.

Create outdoor places of respite on health care campus. Allocate 5% for patients and visitors and 2% for staff, accessible within 200 feet and with views of nature.

Direct exterior access for patients and staff fulfills leed bd+c v4.1 foundation site credit by providing outdoor time and nature views, with spaces meeting five square feet per patient.

Integrates school facilities with the community through joint use agreements. Outlines three options for shared spaces, after-hours toilets, and direct school access.

Explore the water efficiency category, covering indoor use, outdoor use, specialized uses, and metering to reduce potable water and promote conservation and water reuse, aided by water credits.

Master outdoor water use prerequisites with landscape design, a water budget, and native plants to reduce irrigation. Opt for no irrigation or at least 30 percent reduction using WaterSense tools.

Lower indoor potable water use via efficient fixtures that reduce consumption by 20 to 50 percent. WaterSense identifies these fixtures, and a calculator verifies the 20 percent prereq.

Install permanent water meters to track total potable water use for the building and grants, compile monthly/annual summaries, and reveal five-year water use data to identify savings across LEED portfolio.

Explore the outdoor water use credit, focusing on reducing potable water for landscapes through non potable sources, irrigation avoidance, and 50% or more reductions with plant selection and smart scheduling.

learn how to achieve indoor water use reduction by lowering fixture and fitting water use from baseline, using alternative water sources, and earning points for schools, retail, hospitality, and healthcare.

Explore the LEED BD+C v4.1 cooling tower water use credit, focusing on conserving potable water, blowdown, cycles of concentration, and the analysis steps to optimize condenser water system performance.

Explore how water metering under LEED BD+C tracks subsystem consumption, establishes baselines, and reveals savings opportunities via permanent meters in irrigation, indoor plumbing, cooling towers, and process water.

Explore the energy and atmosphere category, focusing on energy demand reduction, efficient design strategies, and renewables to improve building performance and LEED credits.

Define fundamental commissioning and verification to align owners project requirements with design intent, verify system performance, and document a commissioning plan, construction tests, and ongoing verification.

Boost energy efficiency to meet minimum energy performance for buildings and IT systems. Use prescriptive or performance paths under 90.1-2016 to quantify CO2e reductions from baseline to proposed design.

This lecture explains building level energy metering as part of the energy and atmosphere prerequisite, enabling energy management, tracking energy use over time, and identifying opportunities for energy savings.

Learn fundamental refrigerant management to reduce ozone depletion by phasing out CFCs; do not use CFC-based refrigerants in new projects, convert existing HFC equipment, and plan phase-out extensions.

Enhanced commissioning strengthens the energy and atmosphere credit with owner oversight beyond occupancy. It covers basis of design reviews, operator training, post-construction verification, and ongoing commissioning.

Explore LEED BD+C v4.1 energy performance optimization, from setting energy targets to evaluating cost and greenhouse gas metrics across prescriptive, performance, and system optimization options for data centers and buildings.

Learn how advanced energy metering supports energy management by tracking building and system energy use, with hourly to annual reporting, remote access, and tenant metering.

Explore grid harmonization to enhance demand response participation, design on-site energy systems that serve the grid, improve reliability, and reduce greenhouse gas emissions.

This lecture explains renewable energy production as an energy and atmosphere credit, detailing on-site and off-site options, procurement strategies, and long-term contracts to reduce carbon emissions and grid reliance.

Learn enhanced refrigerant management in LEED BD+C, reducing ozone depletion and climate impact via odp and gwp per montreal protocol, with option one or option two life-cycle calculations.

Explore the materials and resources category through a lifecycle approach that reduces embodied energy, prioritizes waste prevention, reuse, and recycling, and explains life cycle assessments for LEED credits.

Learn to design dedicated, accessible spaces for collecting and storing recyclables to reduce waste, prevent landfill disposal, and safely manage batteries and e-waste using consistent metrics.

Develop and implement a construction and demolition waste management plan to reduce landfill disposal via reuse, recycling, and source reduction; identify at least five materials for diversion and prepare report.

Explore mercury and PBT source reduction in healthcare facilities, addressing mercury-containing products, device capture and recycling, regulatory guidelines, and strategies to phase out mercury in lighting and equipment.

Explore strategies to reduce a building's lifecycle impact through adaptive reuse, historic building reuse, renovation, and cradle-to-grave life-cycle assessment.

Learn how building product disclosure and optimization credits use environmental product declarations (EPD) to reveal lifecycle impacts, with ISO-based criteria, cradle-to-gate and cradle-to-grave scopes, and third-party verification.

Explore sourcing of raw materials for leed bd+c v4.1, focusing on responsible extraction, reuse and recycled content, and cost-based criteria including extended producer responsibility and FSC-certified bio-based materials.

Learn how LEED BD+C v4.1 foundation course guides project teams through material ingredients disclosure and optimization, with two options—material ingredient reporting and material ingredient optimization—using third-party verifications.

LEED BD+C v4.1 foundation course emphasizes PBT and source reduction by reducing mercury in health care lamps through long-life, low-mercury fluorescent options, for a one-point credit.

Implement PBT source reduction by limiting lead and cadmium in building materials and copper systems, preventing copper release and persistence along the life cycle and meeting material limits.

LEED BD+C v4.1 credit for furniture and medical furnishings enhances indoor environmental quality by supporting low chemical content and multi-attribute assessments with 30, 40, and 50 percent by cost thresholds.

Design healthcare facilities for adaptive use to conserve resources and extend life by applying at least three of eight flexibility strategies such as interstitial space, soft space, and future expansion.

Learn construction and demolition waste management to reduce landfill waste by recovering, reusing, and recycling materials. Explore diversion and reduction options, thresholds, and material streams.

Explore the indoor environmental quality category, including air quality, lighting quality, acoustic design and control, and ventilation, and learn how low emitting materials and source control support occupant health.

Explore the minimum indoor air quality performance prerequisite, detailing ventilation requirements, monitoring strategies, and standards that protect occupant comfort and health.

Enforce environmental tobacco smoke control to prevent exposure to secondhand smoke indoors and in outdoor areas near entrances, prohibiting indoor smoking and requiring no smoking signage and enforcement.

Apply minimum acoustic performance standards in school classrooms to improve teacher–student communication by controlling background noise and reverberation per ANC SFL 60, 2010.

Improve indoor air quality with enhanced indoor quality strategies to boost comfort, wellbeing, and productivity by using entry systems, filtration media, increased ventilation, and monitoring for ventilated spaces.

Choose low emitting materials across paints and coatings, adhesives and sealants, flooring, and furniture to meet VOC emission and content thresholds, with exemplary performance for category coverage.

Promote well-being with an indoor air quality management plan for construction and pre occupancy. Enforce filtration standards, control dust and moisture, protect materials, and prohibit tobacco during construction.

Assess indoor air quality for LEED BD+C v4.1 by choosing flush out or air testing before and during occupancy to control dust, ozone, fine particulate matter, and VOCs.

Explore indoor environmental quality and thermal comfort, detailing design and control requirements under ASHRAE 55 and ISO standards to boost occupant satisfaction and productivity.

Learn how interior lighting improves occupant productivity and comfort under the LEED BD+C v4.1 IEQ credit, with strategies for luminance, CRI above 80, long-life lamps, and multi-zone, adjustable lighting controls.

Discover how daylighting enhances occupant well-being and energy efficiency in LEED BD+C projects, outlining the IEQ daylight credit, three compliance paths, and modeling or measurement requirements.

Explore indoor environment quality focused on quality of use by connecting occupants to the outdoors through vision glazing, multiple sightlines, and view factors with area-based requirements.

Advance indoor environmental quality by addressing acoustic performance, masking, reverberation, sound reinforcement, and stc ratings to boost occupant well-being, privacy, and productivity.

Explore the LEED innovation credit, guiding teams to achieve exceptional or innovative environmental performance beyond LEED requirements, using innovation, pilot credits, and additional strategies for up to five points.

Identify regional priority credits and how up to four of six credits address location-specific environmental, social equity, and public health priorities using the USGBC database.