Category Archives: Language

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Language 600

Starting from the canonicals of any standard suitable for optimizing innovation (and incorporation by reference into public law) — Title, Scope, Purpose and Definitions — we will turn our attention to the Call for Public Comment by NIST which is open until July 28th.

Innovation and Competitiveness in Artificial Intelligence

Artificial intelligence is built upon language, but the meaning of “standard language” becomes complicated when machines learn from billions of human expressions. Unlike electrical, building or safety standards, language standards are rarely governed by a single authority. Dictionaries, style manuals, universities, publishers, governments and professional societies establish conventions, while ordinary speakers continuously modify them. AI systems operate in the middle of this tension between prescription and usage.

Training data. Large language models learn statistical patterns from books, websites, journalism, academic literature, software and other sources. The composition of that material influences what the model recognizes as normal, authoritative or acceptable language. Decisions about inclusion, exclusion and weighting can therefore function as de facto standards, even when no formal standards organization is involved.

 Grammar and intelligibility. AI can reinforce conventional spelling, syntax and technical terminology, making communication across institutions and borders easier. This is particularly valuable in engineering, medicine, law and education, where small differences in terminology can have substantial consequences. Yet excessive normalization may flatten dialect, regional vocabulary and inherited forms of expression.

Meaning. Words change over time and contested words often carry political, cultural or institutional assumptions. When an AI system chooses one definition over another, it may unintentionally appear to settle a dispute that society itself has not settled. Transparency about ambiguity is therefore an important characteristic of trustworthy AI.

Tchnical standardization. AI increasingly depends upon formal vocabularies, ontologies, metadata, machine-readable definitions and interoperability protocols. Standards organizations such as International Organization for Standardization, IEEE and National Institute of Standards and Technology have roles in developing frameworks through which AI systems can be evaluated and governed.

Above all we still face the question: Who gets to set the language standard? Should AI reflect contemporary majority usage, established literary traditions, professional terminology, institutional style or the language of particular communities? Probably some combination is unavoidable.

For Standards Michigan, the deeper question may be this: AI does not merely follow language standards; through widespread daily use, it may increasingly help create them. If millions of students, teachers, engineers and institutions rely upon AI to write and interpret language, the model’s linguistic choices can become conventions themselves. Understanding how those choices are made may therefore become as important as understanding the standards written by traditional standards-setting bodies.

 

Tokens

Standards Michigan: Language*

American English is effectively the de facto reference language for most modern LLM tokenization.   During today’s session we explore the at-present advantage Americans have in the development of artificial applications — whether it should always be that way or not.  Tokenization isn’t language-neutral — it’s heavily skewed toward English due to data realities. This is one of the core reasons why “English-first” prompting often works best in today’s LLMs.

We will use the document linked below to begin the exploration:

NIST AI Consortium

Use the login credentials at the upper right of our home page


The Quick Brown Fox – Tokenization Example

Original English Sentence:

The quick brown fox jumps over the lazy dog.

1. Tokenization

Tokens: ["The", " quick", " brown", " fox", " jumps", " over", " the", " lazy", " dog", "."]

2. Token IDs (Numbers fed to the AI model)

Token Token ID
The 464
quick 2068
brown 7583
fox 1776
jumps 18045
over 625
the 262
lazy 16925
dog 3290
. 13

Final Input to the AI Model:

[464, 2068, 7583, 1776, 18045, 625, 262, 16925, 3290, 13]


Background:

The model only sees this list of numbers. It has no direct understanding of English words anymore — it learned patterns from billions of examples during training using these number sequences.This numerical input then goes through embeddings (turning numbers into vectors), attention layers, etc., to generate a response.  Most widely used tokenizers (e.g., OpenAI’s tiktoken, Llama’s, etc.) are trained primarily on English-heavy datasets (often 60–90%+ English in pre-training corpora).

Outcome:

    • Better compression for English — Common English words and patterns become single tokens or short subwords.
    • Worse efficiency for other languages — Non-English text often gets fragmented into more tokens (sometimes 2–5× more for the same semantic content).

Impact:

    • Higher token counts = higher API costs and shorter effective context windows for non-English users.
    • Poorer downstream performance on non-English tasks.
    • English becomes the “cheapest” and often “best-performing” language for prompting and reasoning.

Studies consistently show this “tokenization tax” or “language premium”: English typically has the lowest token-per-character or token-per-meaning ratio in major models.

Bias:

    • Multilingual models still underperform on low-resource languages.
    • It reinforces English as the default language for AI development.
    • It affects fairness, accessibility, and global adoption.

Efforts to fix this include dedicated multilingual tokenizers, language-specific fine-tuning, and more balanced approaches. However, because English dominates training data and benchmarks, it remains the practical standard that everything else is measured against.

Tokenization isn’t language-neutral — it’s heavily skewed toward English due to data realities. This is one of the core reasons why “English-first” prompting often works best in today’s LLMs.

 

* StandardsMichigan.COM normally deals with Language issues every Monday at least once per month.

How Your LLM Costs 5X More If You Don’t Speak English

Same content, 65% more expensive in Chinese! Cross-model tokenization comparison: Claude users pay the highest ‘Chinese tax’

print(“Python”)

Active Python Releases

 

“Python is the programming equivalent

of a Swiss Army Knife.”

— Some guy

 

The Python Standard Library

Open source standards development is characterized by very open exchange, collaborative participation, rapid prototyping, transparency and meritocracy.   The Python programming language is a high-level, interpreted language that is widely used for general-purpose programming. Python is known for its readability, simplicity, and ease of use, making it a popular choice for beginners and experienced developers alike.  Python has a large and active community of developers, which has led to the creation of a vast ecosystem of libraries, frameworks, and tools that can be used for a wide range of applications. These include web development, scientific computing, data analysis, machine learning, and more.

Another important aspect of Python is its versatility. It can be used on a wide range of platforms, including Windows, macOS, Linux, and even mobile devices. Python is also compatible with many other programming languages and can be integrated with other tools and technologies, making it a powerful tool for software development.  Overall, the simplicity, readability, versatility, and large community support of Python make it a valuable programming language to learn for anyone interested in software development including building automation.

As open source software, anyone may suggest an improvement to Python(3.X) starting at the link below:

Python Enhancement Program

Python Download for Windows

Python can be used to control building automation systems. Building automation systems are typically used to control various systems within a building, such as heating, ventilation, air conditioning, lighting, security, and more. Python can be used to control these systems by interacting with the control systems through the building’s network or other interfaces.

There are several Python libraries available that can be used for building automation, including PyVISA, which is used to communicate with instrumentation and control systems, and PyModbus, which is used to communicate with Modbus devices commonly used in building automation systems. Python can also be used to develop custom applications and scripts to automate building systems, such as scheduling temperature setpoints, turning on and off lights, and adjusting ventilation systems based on occupancy or other variables. Overall, Python’s flexibility and versatility make it well-suited for use in building automation systems.

Subversion®

Building Automation & Control Networks

Unified English Braille

 

Student Publications

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Distributed Representations of Words and Phrases

 

Tomas Mikolov, et. al
Google Inc. Mountain View

Abstract.  The recently introduced continuous Skip-gram model is an efficient method for learning high-quality distributed vector representations that capture a large number of precise syntactic and semantic word relationships. In this paper we present several extensions that improve both the quality of the vectors and the training speed. By subsampling of the frequent words we obtain significant speedup and also learn more regular word representations. We also describe a simple alternative to the hierarchical softmax called negative sampling.

An inherent limitation of word representations is their indifference to word order and their inability to represent idiomatic phrases. For example, the meanings of “Canada” and “Air” cannot be easily combined to obtain “Air Canada”. Motivated by this example, we present a simple method for finding phrases in text, and show that learning good vector representations for millions of phrases is possible.


 

Large Language Models and Infrastructure Technical Standards

Large Language Models (LLMs) are poised to significantly accelerate and reshape the development of infrastructure standards — including engineering codes, technical specifications for civil works, transportation, energy grids, water systems, and related Standards Development Organization (SDO) processes at ASTM, IEEE, ASABE, ISO, and similar bodies.  This connection traces back to foundational ideas in distributed representations (Hinton et al., Mikolov’s Word2Vec) that powered the transformer revolution, which in turn enabled modern LLMs and the shift from passive generative AI to active, goal-directed agentic AI.

While LLMs will not replace human expertise, consensus-building, or rigorous validation, they will transform traditionally slow, document-heavy workflows into faster, more collaborative, and data-driven processes.

1. Faster Drafting, Summarization, and Gap Analysis

LLMs can rapidly summarize lengthy documents, extract key requirements, identify inconsistencies across related standards, and generate initial draft sections or comparison tables. This is especially valuable for reviewing historical codes, research papers, regulations, and stakeholder inputs.

Infrastructure example: In renewable energy permitting or grid interconnection standards, LLMs excel at processing complex environmental impact statements and regulatory texts to accelerate reviews.

2. Enhanced Requirements Engineering and Consistency Checking

LLMs support formal requirements extraction, flag ambiguities, suggest measurable criteria, and translate between domains. They help maintain alignment between textual standards and digital implementations such as Building Information Modeling (BIM) or simulation tools.

3. Improved Accessibility, Education, and Stakeholder Participation

LLMs make standards more usable by generating plain-language explanations, FAQs, examples, and tailored training materials. They lower barriers for broader participation in SDO committees by helping non-experts understand and contribute to drafts.

4. Domain-Specific Applications in Infrastructure

  • Civil, Structural & Agricultural Engineering: Design ideation, safety analysis, and updating standards for new materials and climate resilience.
  • Permitting & Compliance: Summarizing environmental documents and speeding up infrastructure deployment.
  • Interoperability & Testing: Verification support for software-heavy systems such as smart grids and autonomous infrastructure.

5. Broader Process Changes for SDOs

  • Zero-draft acceleration for preliminary stakeholder review
  • Continuous monitoring for maintenance and timely updates
  • Multi-agent LLM systems for parallel virtual expert review before human consensus

Limitations and Important Caveats

  • “Hallucinations” & Validation: Outputs must always be human-verified, especially in safety-critical areas. Domain-specific fine-tuning and retrieval-augmented generation (RAG) help but are not foolproof.
  • Bias, Copyright & Accountability: Standards demand traceability and consensus; LLMs can introduce subtle biases or IP concerns.
  • Not a Full Replacement: Human judgment remains essential for risk assessment, ethics, and real-world tradeoffs.

Expect 2–5× faster iteration on drafts, superior knowledge management, and more adaptive standards. Early adopters using LLM assisted tools with proper governance will lead the next generation of infrastructure standards development.

Lingua Franca

Plain Writing Act of 2010

White House: Designating English as the Official Language of The United States

2026 National Electrical Code Article 100 Definitions Public Input Transcript (Definitions)

2026 National Electrical Code Article 100 Definitions Public Comment Transcript (Definitions)


“The English genius is essentially eclectic;

it borrows from everywhere and from every time.”

— Peter Ackroyd | 2004  Albion: the origins of the English imagination

“The Tower of Babel” 1563 | Pieter Bruegel the Elder

 

“Wer von Fremdsprachen nichts versteht, kennt seine eigenen nichts.”

– Johann Wolfgang von Goethe

 

Disagree with someone and cannot persuade them?  Do you need to hide your intransigence or ulterior motive? Then change the basis of discussion by changing the subject with a different definition.

This happens routinely in political discourse and rather frequently in best practice discovery and promulgation in building construction and settlement infrastructure standards[1].  Assuming all parties are negotiating in good faith resolution may lie in agreement on a common understanding of what a satisfying agreement might look like.

Admittedly, a subtle and challenging topic outside our wheelhouse[2] hence the need to improve our organization of this topic starting with today’s colloquium; with follow on sessions every month.

Starting 2025 we will organize our approach to this topic, thus:

Language 100.  Survey of linguistic basics for developing codes, standards and regulations.  Many vertical incumbents have developed their own style manuals

Language 200.  Electrotechnical vocabulary

Language 300.  Architectural and Allied trade vocabulary

Language 400.  The language of government regulations; the euphemisms of politicians with influence over the built environment

Language 500.  Advanced topics such as large language models or spoken dialects such as “High Michigan” — arguably, the standard American dialect where it applies to the standards listed above.

Naming & Signs


It may not be obvious how profound the choice of words and phrases have on leading practice discovery and promulgation.  For example, “What is Gender” determines the number, placement and functionality of sanitary technologies in housing, hospitals and sporting.   The United States has a Supreme Court justice that cannot define “woman”

As always, we will respond to public consultation opportunities wherever we can find them.  Some organizations are better than this than others.

Large Language Models

Glossary: Education

Examples of Variations in Translations of Homer’s Odyssey

Banished Words 2025 (And words that refuse to be banished)

Today we limit our discussion to language changes in the catalogs of ANSI-accredited standards developers whose titles have the most influence over the interoperability of safety and sustainability technologies that create and sustain the built environment of educational settlements.

American Institute of Architects: Definitions for Building Performance 

ASHRAE International

Language Proficiency

International Code Council

Institute of Electrical and Electronic Engineers

National Fire Protection Association

Qu’est-ce qu’une nation?

Using tasks in language teaching

print(“Python”)

Love and Mathematics

The Guy Who Over-Pronounces Foreign Words

Every building construction discipline has its own parlance and terms of art.

This is enough for a one-hour session and, depending upon interest, we will schedule a breakout session outside of our normal “daily” office hours.  Use the login credentials at the upper right of our home page.

ΒΙΒΛΙΟΘΗΚΕΣ

Starting 2024 and running into 2025 we will break down this topic further, starting with construction contract language — Lingua Franca 300:

“Standard” History

History of the English Speaking Peoples

Language Proficiency

Geomatics

Large Language Models

Travels with the Sundry Folk

Reflections on the verb “to be”

Banished Words 2025 (And words that refuse to be banished)

Forbidden Words

Using tasks in language teaching

William Tyndale: The Father of Modern English

“Music does an end run around language” — James Taylor

Electropedia: The World’s Online Electrotechnical Vocabulary

Standard Definition: “Developing” Country

The Guy Who Over-Pronounces Foreign Words

ANSI Acronymn Dictionary

Footnotes:

(1) The United States government defines a “Green Building” as a building that has been designed, constructed, and operated in a way that reduces or eliminates negative impacts on the environment and occupants. The government has established various standards and certifications that buildings can achieve to be considered “green.”

The most widely recognized green building certification in the United States is the Leadership in Energy and Environmental Design (LEED) certification, which is administered by the U.S. Green Building Council (USGBC). To achieve LEED certification, a building must meet certain standards related to sustainable site development, water efficiency, energy efficiency, materials selection, and indoor environmental quality.

In addition to the LEED certification, there are other programs and standards that can be used to measure and certify the sustainability of buildings, such as the Green Globes rating system and the Living Building Challenge.

Overall, the goal of green building is to create buildings that are not only environmentally sustainable but also healthier, more comfortable, and more efficient for occupants, while reducing energy consumption and greenhouse gas emissions. By promoting green building practices, the U.S. government aims to reduce the environmental impact of the built environment and move towards a more sustainable future.

(2) The U.S. Green Building Council is a conformance organization.  See the discussion our ABOUT for background on incumbent stakeholders.

The Seven Sins of Greenwashing

“Eco-friendly”, “Green”, “Bio”… Companies are increasingly using those tags as a signal to consumers of their environmental awareness. Yet also on the rise is a public concern about potential corporate lies in this subject, a phenomena labelled as “greenwashing”.

According to IESE professor Pascual Berrone, “many companies highlight one green positive aspect of their product or service, and hide the true impact that its production has on the environment”. With more and more NGO’s act as public watchdogs, “the consequences of getting caught can be, in terms of reputation but also economically, severe”, he says.

Universidad de Navarra | Iruña

Uno a uno

Building Environment Design

Language 600

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Headline Bias

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