Tag Archives: D1/1

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Lemon Ginger Tea

Statement of Net Position 2024: $1.251B (Page 9)

Planning, Design & Construction Management: 2025-2026 Institutional Priorities

Tea

IEEE: Water Purification for Human Consumption

Elon University Facilities Management

Standards North Carolina

Gates of Kiev | Pictures at an Exhibition | Promenade

“Own only what you can always carry with you:
know languages, know countries, know people.
Let your memory be your travel bag.”
Aleksandr Solzhenitsyn (The Gulag Archipelago, 1973)

 

Standards Ohio

Ohio K-12 Facilities Construction Commission | Map of K-12 Schools

The Great Gate of Kiev: Pictures at an Exhibition

Time & Frequency Services

The National Institute of Standards and Technology is responsible for maintaining and disseminating official time in the United States. While NIST does not have a direct role in implementing clock changes for daylight saving time, it does play an important role in ensuring that timekeeping systems across the country are accurate and consistent.

Prior to the implementation of daylight saving time, NIST issues public announcements reminding individuals and organizations to adjust their clocks accordingly. NIST also provides resources to help people synchronize their clocks, such as the time.gov website and the NIST radio station WWV.

In addition, NIST is responsible for developing and maintaining the atomic clocks that are used to define Coordinated Universal Time (UTC), the international standard for timekeeping. UTC is used as the basis for all civil time in the United States, and it is the reference time used by many systems, including the Global Positioning System (GPS) and the internet.

Overall, while NIST does not have a direct role in implementing clock changes for daylight saving time, it plays an important role in ensuring that timekeeping systems across the country are accurate and consistent, which is essential for the smooth implementation of any changes to the system.

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Time Realization and Distribution

Horologiorum

Campus Child Day Care

“The concentration of a small child at play
is analogous to the concentration of the artist at work.”

 

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Page 522/523: 305.2 Group E, day care facilities for five or fewer children.
Page 624: Group E Security
Page 1440: Storm Shelters
§

Today at the usual hour we review a selection of global building codes and standards that guide best practice for safety, accessibility, and functionality for day care facilities; with special interest in the possibilities for co-locating square footage into the (typically) lavish unused space in higher education facilities. 

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International Building Code

    • Governs overall building construction, fire safety, occupancy classification, and egress requirements for daycare centers.

International Fire Code

    • Regulates fire prevention measures, emergency exits, fire alarms, sprinkler systems, and evacuation protocols for daycare centers.

National Fire Protection Association

    • NFPA 101 – Life Safety Code: Addresses occupancy classification, means of egress, fire safety, and emergency planning.
    • NFPA 5000 – Building Construction and Safety Code: Provides fire protection and structural safety guidelines.

Americans with Disabilities Act

    • Requires daycare centers to be accessible for children and parents with disabilities, covering entrances, bathrooms, play areas, and signage.

European Norms – CEN Standards

    • EN 1176 – Playground Equipment and Safety Requirements: Covers safety standards for daycare playgrounds and outdoor spaces.
    • EN 16890 – Safety Requirements for Mattresses in Children’s Products.

British Standards (BS) for Early Years Facilities

    • BS 8300: Accessibility requirements for childcare facilities.
    • BS 9999: Fire safety guidance for daycare and educational buildings.

Australian Building Code & National Construction Code

    • Covers fire safety, structural integrity, ventilation, and child safety measures for daycare centers.

ISO 45001 – Occupational Health and Safety Management

    • Establishes safety requirements for employees working in daycare facilities, ensuring a safe environment for both children and staff.

Canadian Building Code & Fire Code (NBC & NFC)

    • Provides structural, fire safety, and child safety guidelines for daycare centers in Canada.

“Kindergarten” 1885 Johann Sperl

Preschool Children in the Dome

Playgrounds

Kindergarten

Cornbread & Coffee

The morning cup of coffee has an exhilaration about it which the cheering influence

of the afternoon or evening cup of tea cannot be expected to reproduce.”

“The Professor at the Breakfast-Table” (Oliver Wendell Holmes Sr., 1858)

 

 

Roger Scruton: The True, the Good and the Beautiful

Student Cornbread Recipe Message Board

UNL Extension Recipe Central

Student Affairs: Spots to Grab a Coffee on Campus

Standards Nebraska

United States Department of Agriculture: Is Corn a Grain or a Vegetable?

 

 


Coffee

Kitchens 100

The “Sugaring” Season

“The Full Moon Coffee Shop”

 

“In the quiet moments between sips of coffee, one can hear the whispers of the stars” — Mai Mochizuki (‘The Full Moon Coffee Shop’, 2024)

Cowboy Coffee

“We wish to suggest a structure

for the salt of deoxyribose nucleic acid (DNA).

This structure has novel features

which are of considerable biological interest….”

James Watson | “Nature” April 1953

“The Valley of Wyoming” 1865 Jasper Cropsey

University of Wyoming 2021

This simple method preparing hot coffee evolved from open flame; out on the range.  The result is a strong, robust cup that retains grittiness due to the coarse grind and the absence of a filter. Cowboy coffee is more about utility and simplicity rather than precision and refinement, which aligns with the rugged and practical nature of cowboy life.  Here’s how it’s typically made:

Ingredients:

Coarsely ground coffee beans, water.

Equipment:

A pot (often a simple metal or enamel coffee pot), a heat source (campfire or portable stove), and a way to separate the grounds from the liquid (like pouring or using a fine mesh strainer).

Process:

Add coarsely ground coffee to the pot. The amount can vary based on personal preference, but it’s generally a couple of tablespoons of coffee per cup of water.

Add water to the pot. Again, the ratio of coffee to water can be adjusted based on taste preferences.

Place the pot on the heat source and bring it to a near-boil. Watch it carefully to avoid boiling over.

Once it’s heated, let it steep for a few minutes. Some cowboys might toss in a crushed eggshell to help settle the grounds.

Remove the pot from the heat and let it sit for a moment to allow the coffee grounds to settle.

Pour the coffee carefully to avoid pouring the grounds into your cup.

Locals swear by it:

“Cowboy coffee ain’t as easy as it looks. It takes some know-how to make it right.” – Unknown

“You can’t compromise with a cup of weak coffee.” – Cowboy Proverb

“There are only two things that a cowboy can’t do without – his horse and his coffee.” – Unknown

“A cowboy’s day starts with coffee and ends with whiskey.” – Unknown

“Life is too short for bad coffee.” – Unknown

“Cowboy coffee: where the grounds are meant to be chewed, not sipped.” – Unknown

"We were together. I forget the rest." -- Walt Whitman ('Leaves of Grass', 1855) "Everything I know is because of love" -- Leo Tolstoy

Wyoming

University of Alaska Ethnobotany: Bannock

Water and Sanitation

Standards March: Water

Water is essential for sanitation and hygiene — and proper sanitation is essential for protecting water sources from contamination and ensuring access to safe drinking water.  Access to safe water and sanitation is crucial for preventing the spread of waterborne diseases, which can be transmitted through contaminated water sources or poor sanitation practices. Lack of access to safe water and sanitation can lead to a range of health problems, including diarrheal diseases, cholera, typhoid, and hepatitis A.  

On the other hand, poor sanitation practices, such as open defecation, can contaminate water sources, making them unsafe for drinking, bathing, or cooking. This contamination can lead to the spread of diseases and illness, particularly in developing countries where access to clean water and sanitation facilities may be limited.

We track the catalog of the following ANSI accredited standards developers that necessarily require mastery of building premise water systems:

American Society of Heating, Refrigerating and Air-Conditioning Engineers: ASHRAE develops standards related to heating, ventilation, air conditioning, refrigeration systems — and more recently, standards that claim jurisdiction over building sites.

American Society of Mechanical Engineers: ASME develops standards related to boilers, pressure vessels, and piping systems.

American Water Works Association: AWWA is a standards development organization that publishes a wide range of standards related to water supply, treatment, distribution, and storage.

ASTM International: ASTM develops and publishes voluntary consensus standards for various industries, including water-related standards. They cover topics such as water quality, water sampling, and water treatment.

National Fire Protection Association: NFPA develops fire safety standards, and some of their standards are related to water, such as those covering fire sprinkler systems and water supplies for firefighting within and outside buildings.  We deal with the specific problems of sprinkler water system safety during our Prometheus colloquia.

National Sanitation Foundation International (NSF International): NSF International develops standards and conducts testing and certification for various products related to public health and safety, including standards for water treatment systems and products.

Underwriters Laboratories (UL): UL is a safety consulting and certification company that develops standards for various industries. They have standards related to water treatment systems, plumbing products, and fire protection systems.

 

United States Standards System


* The evolution of building interior water systems has undergone significant changes over time to meet the evolving needs of society. Initially, water systems were rudimentary, primarily consisting of manually operated pumps and gravity-fed distribution systems. Water was manually fetched from wells or nearby sources, and indoor plumbing was virtually nonexistent.

The Industrial Revolution brought advancements in plumbing technology. The introduction of pressurized water systems and cast-iron pipes allowed for the centralized distribution of water within buildings. Separate pipes for hot and cold water became common, enabling more convenient access to water for various purposes. Additionally, the development of flush toilets and sewage systems improved sanitation and hygiene standards.

In the mid-20th century, the advent of plastic pipes, such as PVC (polyvinyl chloride) and CPVC (chlorinated polyvinyl chloride), revolutionized plumbing systems. These pipes offered durability, flexibility, and ease of installation, allowing for faster and more cost-effective construction.

The latter part of the 20th century witnessed a growing focus on water conservation and environmental sustainability. Low-flow fixtures, such as toilets, faucets, and showerheads, were introduced to reduce water consumption without compromising functionality. Greywater recycling systems emerged, allowing the reuse of water from sinks, showers, and laundry for non-potable purposes like irrigation.

With the advancement of digital technology, smart water systems have emerged in recent years. These systems integrate sensors, meters, and automated controls to monitor and manage water usage, detect leaks, and optimize water distribution within buildings. Smart technologies provide real-time data, enabling better water management, energy efficiency, and cost savings.

The future of building interior water systems is likely to focus on further improving efficiency, sustainability, and water quality. Innovations may include enhanced water purification techniques, decentralized water treatment systems, and increased integration of smart technologies to create more intelligent and sustainable water systems.

The first mover in building interior water supply systems can be traced back to the ancient civilizations of Mesopotamia, Egypt, and the Indus Valley. However, one of the earliest known examples of sophisticated indoor plumbing systems can be attributed to the ancient Romans.

The Romans were pioneers in constructing elaborate water supply and distribution networks within their cities. They developed aqueducts to transport water from distant sources to urban centers, allowing for a centralized water supply. The water was then distributed through a network of lead or clay pipes to public fountains, baths, and private residences.

One notable example of Roman plumbing ingenuity is the city of Pompeii, which was buried by the eruption of Mount Vesuvius in 79 AD. The excavation of Pompeii revealed a well-preserved plumbing system that included indoor plumbing in some houses. These systems featured piped water, private bathrooms with flushing toilets, and even hot and cold water systems.

The Romans also invented the concept of the cloaca maxima, an ancient sewer system that collected and transported wastewater away from the city to nearby bodies of water. This early recognition of the importance of sanitation and wastewater management was a significant advancement in public health.

While the Romans were not the only ancient civilization to develop indoor plumbing systems, their engineering prowess and widespread implementation of water supply and sanitation infrastructure make them a key player in the history of building interior water systems.

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