Meet Raley Kirk from San Saba, TX. Raising hair sheep and Spanish goats in the Texas Hill Country, Raley is proud to play a part in providing the food and fiber our country depends on every day.
For her, National Ag Week is about highlighting that meaningful work and ensuring… pic.twitter.com/9KKC4pzRgC
Reports are usually released at 10 AM EST the first day of every month except this month. (May 2026)
There’s been a significant redesign of the look and feel of the monthly Census Bureau reports construction activity. Today we sort through the rather more granular statistics that inform our recommendations for facility spend.
Total #construction activity for May 2026 ($2,210.2 billion) was 0.1% above the revised April 2026 estimate ($2,207.1 billion).
It has been 20 years since we began tracking educational settlement facility spend. Starting this month we will examine federal government data together with the best available data about space utilization to enlighten our response to the perfectly reasonable question: “Are we over-building or under-building or building ineffectively”. Use the login credentials at the upper right of our home page.
California Polytechnic University | San Luis Obispo County
Oulun yliopisto | Pohjois-Pohjanmaa
Tulane School of Architecture Louisiana
University of Michigan | Washtenaw County
Auburn University | Lee County Alabama
University of Kansas School of Architecture |
Douglas County
As reported by the US Department of Commerce Census Bureau the value of construction put in place by August 2025 by the US education industry proceeded at a seasonally adjusted annual rate of $137.604 billion. This number does not include renovation for projects under 50,000 square feet and new construction in university-affiliated health care delivery enterprises. Reports are released two months after calendar month. The complete report is available at the link below:
This spend makes the US education facilities industry (which includes colleges, universities, technical/vocational and K-12 schools, most university-affiliated medical research and healthcare delivery enterprises, etc.) the largest non-residential building construction market in the United States after commercial property; and fairly close. For perspective consider total public + private construction ranked according to the tabulation most recently released:
$137.604 billion| Education Facilities
$155.728 billion | Power
$69.625 billion | Healthcare
Keep in mind that inflation figures into the elevated dollar figures. Overall — including construction, energy, custodial services, furnishings, security. etc., — the non-instructional spend plus the construction spend of the US education facilities is running at a rate of about $300 – $500 billion per year.
We typically pick through the new data set; looking for clues relevant to real asset spend decisions. Finally, we encourage the education facilities industry to contribute to the accuracy of these monthly reports by responding the US Census Bureau’s data gathering contractors.
Reconstruction of Ancient Agora
As surely as people are born, grow wealthy and die with extra cash,
there will be a home for that cash to sustain their memory and to steer
the cultural heritage of the next generation in beautiful settings.
In 1936, a team of @NIST researchers, including optical physicist Irvine Gardner, joined National Geographic Society to observe June solar eclipse with a 9-inch astrographic lens Gardner designed. He has 9 patents, including for the wide-angle binocular telescope & range finder. pic.twitter.com/BblX8FnTBL
…When we talk about standards in our personal lives, we might think about the quality we expect in things such as restaurants and first dates. But the standards that exist in science and technology have an even greater impact on our lives. Technical standards keep us safe, enable technology to advance, and help businesses succeed. They quietly make the modern world tick and prevent technological problems that you might not realize could even happen…”
The Four Maidens are four seated limestone sculptures by Danish-American artist Christian Petersen, installed in 1941 as part of the Fountain of the Four Seasons outside Iowa State University’s Memorial Union. These iconic figures, depicting Native American women inspired by an Osage tribe chant of thanksgiving, represent the annual cycle of corn agriculture and family life: Spring (planting corn, east), Summer (sheltering a young plant, south), Fall (holding the harvest, west), and Winter (nursing a child, north). They symbolize renewal, growth, harvest, and sustenance. Recently replicated in durable Bedford limestone after erosion, they remain a beloved campus landmark.
Cornell University’s status as a land-grant institution, coupled with its location in Ithaca, far from New York’s urban centers, fosters a campus atmosphere of grounded normalcy. As a land-grant university, Cornell emphasizes practical education, research, and outreach, rooted in its mission to serve the public good. This ethos cultivates a community focused on collaboration and accessibility rather than elitism.
Ithaca’s rural setting, surrounded by gorges and rolling hills, creates a tight-knit, insulated environment where students engage deeply with academics and each other without the distractions of a bustling city. The slower pace encourages a balanced lifestyle, with traditions like Slope Day and local eateries fostering camaraderie. The lack of urban pressures allows for a focus on intellectual curiosity and personal connections, while diverse student organizations and cooperative extension programs reinforce a sense of purpose and community, grounding Cornell’s atmosphere in authenticity and approachability.
Quite recently. If the STDMi material concerns the familiar BOMA Office floor-measurement standard, the current edition is ANSI/BOMA Z65.1-2024, released in March 2024. It replaced the 2017 edition. Earlier editions include 2010 and 1996.
The 2024 revision is particularly useful for where we’re headed because BOMA expressly says the resulting area figures can be used not only for leasing but for space-utilization analysis, valuation, benchmarking and allocating building expenses among cost centers. It also explicitly covers institutional, medical and life-science office buildings.
There is a second BOMA document that may actually be more important for campus-wide STDMi work:
ANSI/BOMA Z65.3-2024 — Gross Areas: Standard Methods of Measurement.
That was also revised in 2024, replacing the 2018 edition. Unlike Z65.1, it is intended to provide a consistent gross-area methodology across all building types. The new edition contains five measurement methods, including a new Gross Area 5 — ENERGY STAR Method, and aligns with the current International Property Measurement Standards.
So we have genuinely fresh standards material to bring forward this semester:
Z65.1-2024 — Office Buildings
2017 → 2024
Z65.3-2024 — Gross Areas
2018 → 2024
For our emerging question — what has the educational settlement built, how much space is there and what does it cost to keep? — I think Z65.3 deserves to come forward alongside Z65.1. That keeps us from allowing the discussion to become merely an office-leasing exercise.
At the moment all titles in this catalog seem to be stabilized although a great deal of economic activity in the commercial real estate market involves adjustment to the circumstances of the pandemic. Largely because a sizeable portion of square footage in every school district, college, university and university-affiliated healthcare research and clinical delivery system derives at least part of its funding from governments at all levels there are workgroups devoted to measuring square footage and documenting its use. For example:
Getting square-footage right is essential for securing an organization’s sustainability and “green” claims for example. The links in previous posts provide for information about future public consultations.
We maintain the BOMA catalog on the agenda of our Space Planning, Hammurabi and Architectural colloquia, hosted 6 to 8 times annually. See our CALENDAR for the next online meeting, open to everyone.
We drill into the specifics commonly found in education communities: sub-lease of space to private industry in publicly-owned facilities. The Building Owners and Managers Association International is an ANSI-accredited consensus standard developer and revised its standard — BOMA Z65.5 Retail Properties: Standard Method of Measurement. Measuring the area of a retail building can quickly become complex when variables must be considered such as ancillary space, mezzanines and storefront lease lines. Many large research universities have long since leased space within many of their building envelopes for private industry to service their communities — student unions, hospitals, dormitories and athletic venues, for example. From the project prospectus:
Z65.5 is intended exclusively for retail properties and their associated structures and may be applied to single-tenant, multi-tenant or multi-building configurations. It features a single method of measurement, with two levels of measurement data, known as Partial Measurement and Overall Measurement for retail properties. It does not measure sidewalks, surface parking, drainage structures, or other ancillary site improvements. This standard is chiefly designed to generate Gross Leasable Area figures, a key metric in retail leasing; however, it also produces area figures which may be of interest to those examining space utilization, valuation, benchmarking, and the allocation of building expenses to various cost centers. The scope of this standard is not intended to be submitted for consideration as an ISO, IEC, or ISO/IEC JTC-1 standard.
Public consultation is open until February 8th.
You may obtain an electronic copy from: floorstandards@boma.org. Send comments (with optional copy to psa@ansi.org) to: floorstandards@boma.org. We encourage user-interest subject matter experts in education facility management to participate directly in the BOMA standards development process by communicating directly with Tanner Johnson at BOMA (tjohnston@boma.org) or 202-326-6357 for more information.
We keep the BOMA catalog on the standing agenda of our colloquia devoted to building construction best practice. See our CALENDAR for the next online meeting; open to everyone.
– To promote an unambiguous framework for determining the areas of Industrial Buildings with a strong focus on Rentable Area calculations;
– To facilitate transparency and clear communication of building measurement concepts among all participants in the commercial real estate
industry;
– To allow a comparison of values on the basis of a clearly understood and generally agreed upon method of measurement; and
– To align concepts and measurement methodologies with the International Property Measurement Standards: Industrial Buildings (January 2018)
document.
Send comments (with optional copy to psa@ansi.org) to: tjohnston@boma.org
Standards Michigan follows, but d0es not advocate in most of the BOMA standards suite for the following reasons:
Educational facility occupancies are fairly well accounted for in existing federal and state regulations
Advocacy in energy-related best practice titles are a better use of resources at the moment.
We encourage user-interest subject matter experts in education facility management to participate directly in the BOMA standards development process by communicating directly with Tanner Johnson at BOMA (tjohnston@boma.org) or 202-326-6357 for more information.
We maintain the entire BOMA suite on our periodic Model Building Code colloquia. See our CALENDAR for the next online meeting; open to everyone.
Issue: [15-200]
Category: Architectural, Space Plaaning, Facility Asset Management
Electrical grounding is vital for safety and system protection. It provides a path for excess electrical current to safely dissipate into the earth, reducing the risk of electric shock, fire, and equipment damage. Grounding stabilizes voltage levels, ensuring the proper operation of electrical systems and devices. It also protects against electrical surges and lightning strikes by diverting harmful currents away from sensitive components. Overall, grounding enhances the safety, reliability, and performance of electrical installations, making it a fundamental practice in electrical engineering and construction.
In other words, without grounding, electric energy does no useful work. Today we review the grounding principles for exterior lightning protection and building interior telecommunication and audio-visual systems. Use the login credentials at the upper right our home page.
“Railroad Sunset” | Edward Hopper
Grounding protects buildings from lightning by providing a safe path for the immense electrical energy of a lightning strike to travel into the earth, thereby minimizing damage. Here’s how it works:
Lightning Rods: Metal rods placed on top of buildings intercept lightning strikes. These rods are connected to a network of conductors.
Conductors: These metal cables or strips carry the electrical charge from the lightning rod to the ground.
Grounding System: The conductors are connected to grounding rods buried deep in the earth, dispersing the electrical charge safely into the ground.
This system prevents lightning from passing through the building’s structure, reducing the risk of fire, structural damage, and electrical hazards.
“Rain in Charleston” 1951 Thomas Fransioli
Grounding in telecommunication systems is crucial for ensuring safety and operational reliability. Here’s how it works:
Surge Protection: Grounding helps protect telecommunication equipment from voltage surges caused by lightning strikes, power line faults, or switching operations. By providing a direct path to the earth, grounding allows excess electrical energy to be safely dissipated, preventing damage to sensitive equipment.
Electromagnetic Interference (EMI) Reduction: Proper grounding minimizes EMI, which can disrupt communication signals. By creating a common reference point for electrical potentials, grounding reduces noise and interference, ensuring clearer and more reliable signal transmission.
Safety: Grounding protects personnel from electrical shocks by ensuring that any fault currents are directed away from equipment and safely into the ground. This is particularly important in environments with high-power transmission equipment.
System Stability: Grounding stabilizes voltage levels within the system, preventing fluctuations that could cause equipment malfunctions or failures. This stability is crucial for maintaining consistent and reliable telecommunications services.
Overall, grounding enhances the safety, performance, and reliability of telecommunication systems by managing electrical faults, reducing interference, and protecting both equipment and personnel.
“Telegraph Poles with Buildings” | Joseph Stella (1917)
Grounding in audio systems is essential for ensuring high-quality sound output and preventing various types of electrical noise and interference. Here’s how it works:
Noise Reduction: Proper grounding minimizes hums and buzzes often caused by ground loops, which occur when different pieces of equipment are grounded at different points. By ensuring a common ground point, the potential differences that cause these loops are eliminated, leading to cleaner audio signals.
Shielding: Grounding provides a reference point for the shielding in audio cables, which helps to block external electromagnetic interference (EMI) and radio frequency interference (RFI). This shielding prevents unwanted noise from being introduced into the audio signal.
Safety: Grounding protects both the equipment and users from electrical shocks. In the event of a fault, the grounding system directs the fault current safely to the earth, reducing the risk of electric shock and equipment damage.
Signal Integrity: By maintaining a consistent ground potential, grounding helps preserve the integrity of audio signals. This ensures that the signals are transmitted and received accurately without degradation, resulting in better sound quality.
Equipment Protection: Proper grounding can protect sensitive audio equipment from power surges and static discharge, extending the lifespan and reliability of the components.
Overall, grounding is a fundamental practice in audio systems to ensure high-quality sound, protect equipment, and maintain safety for users.
New update alert! The 2022 update to the Trademark Assignment Dataset is now available online. Find 1.29 million trademark assignments, involving 2.28 million unique trademark properties issued by the USPTO between March 1952 and January 2023: https://t.co/njrDAbSpwBpic.twitter.com/GkAXrHoQ9T