“No man, however bold or however high he may stand in his profession, can resist the benumbing effect of rules laid down by authority” — Isambard Kingdom Brunel
Isambard Kingdom Brunel came of age as Britain’s railway age accelerated. During the 1830s and 1840s, competing companies laid new lines across the country, forcing engineers to rethink gradients, bridges, tunnels, stations and the relationship between speed and distance.
As chief engineer of the Great Western Railway, Brunel pursued a remarkably direct route from London toward Bristol, employing major works such as the Box Tunnel and adopting his controversial broad gauge.
Railway expansion encouraged his characteristic systems thinking: rather than accepting inherited constraints, Brunel reconsidered the railway—track, structures, vehicles and connections—as an integrated technological system capable of being redesigned.
When the electric grid and the internet are down and there is no cell service, radio can still work to help communities stabilize. Starting 2024 we will break down our coverage of the radio frequency technology standards used in educational settlements into into two categories:
Radio 300: Security and maintenance radio. These usually use a single radio channel and operate in a half-duplex mode: only one user on the channel can transmit at a time, so users in a user group must take turns talking. The radio is normally in receive mode so the user can hear all other transmissions on the channel. When the user wants to talk he presses a “push-to-talk” button, which turns off the receiver and turns on the transmitter; when he releases the button the receiver is activated again. Multiple channels are provided so separate user groups can communicate in the same area without interfering with each other.
Radio 400: Student radio. College radio stations are typically considered to be public radio radio stations in the way that they are funded by donation and grants. The term “Public radio” generally refers to classical music, jazz, and news. A more accurate term is community radio, as most staff are volunteers, although many radio stations limit staff to current or recent students instead of anyone from the local community. There has been a fair amount of drama over student-run radio station history; a topic we steer away from.
The Low Power FM radio service was created by the Commission in January 2000. LPFM stations are authorized for noncommercial educational broadcasting only (no commercial operation) and operate with an effective radiated power (ERP) of 100 watts (0.1 kilowatts) or less, with maximum facilities of 100 watts ERP at 30 meters (100 feet) antenna height above average terrain. The approximate service range of a 100 watt LPFM station is 5.6 kilometers (3.5 miles radius). LPFM stations are not protected from interference that may be received from other classes of FM stations.
We follow — but do not respond — to consultations on titles covering the use of radio frequencies for the Internet of Things. At the moment, most of that evolution happens at the consumer product level; though it is wise to contemplate the use of the electromagnetic spectrum during widespread and extended loss of broadband services.
Maxwell equations: Four lines that provide a complete description of light, electricity and magnetism
We do not include policy specifics regarding the migration of National Public Radio beyond cultural content into political news; though we acknowledge that the growth of publicly financed radio domiciled in education communities is a consideration in the technology of content preparation informed by the Public Broadcasting Act of 1967.
We drill into technical specifics of the following:
Radios used for campus public safety and campus maintenance
Student-run campus radio stations licensed by the Federal Communications Commission as Low Power FM (LPFM)
Facilities for regional broadcast of National Public Radio operating from education communities
Off-campus transmission facilities such as broadcast towers.
Grounding, bonding, lightning protection of transmission and receiving equipment on buildings
Broadcast studio electrotechnologies
Radio technology is regulated by the Federal Communications Commission with no ANSI-accredited standards setting organizations involved in leading practice discovery and promulgation. Again, we do not cover creative and content issues. Join us today at 11 AM/ET using the login credentials at the upper right of our home page.
“The All-Campus Radio Network, known as ACRN Media, is Ohio University’s student-run radio station. Founded in 1971, we’ve evolved over the past 50-plus years into a media hub, producing visual, editorial and audio content in addition to radio and live music shows. ACRN Media has several departments working together to foster discussion, interaction and participation within accepting popular and DIY music cultures.”
Why are there at least 10 publicly funded radio stations receivable in a 75 mile radius (back and forth, up and down) the I-94/I-75 corridor of Michigan — all of them domiciled in public universities? These stations also receive revenue from other non-profit organizations, unending funding drives and private advertising from multinational financing organizations such as Schwab, Fidelity and other for-profit corporations. Most of them purchase their “content” from the same source; reflecting the same large government bias seen across the entire nation; concentrated in college towns with spotty intellectual history.
Within an approximate 50 mile radius of the University of Michigan, five national public radio stations are receivable:
WUOM University of Michigan Ann Arbor
WEMU Eastern Michigan University
WDET Wayne State University
WKAR Michigan State University
WGTE University of Toledo
Move 25 miles to the northwest and two more are receivable:
Standards for radio broadcast coverage can vary depending on factors like location, broadcasting technology, and regulatory requirements. Here’s a general list covering various aspects:
Technical Standards:
Transmission Power and Frequency Allocation: Standards set by regulatory bodies like the Federal Communications Commission (FCC) in the United States or Ofcom in the UK regulate the power levels and frequencies allocated to radio stations to prevent interference.
Audio Quality: Standards for audio encoding and decoding, such as those defined by organizations like the European Broadcasting Union (EBU) or the Advanced Audio Coding (AAC) standards.
Antenna Design and Installation: Standards for antenna design, placement, and maintenance to ensure efficient transmission and coverage.
Content Standards:
Language and Content Regulations: Regulations on language, decency, and content suitability enforced by regulatory bodies to ensure broadcasts adhere to community standards and do not contain offensive or harmful material.
Advertising Standards: Guidelines on the content and placement of advertisements to prevent deceptive practices and ensure fairness and transparency.
Copyright and Licensing: Regulations governing the use of copyrighted material and licensing agreements for broadcasting music, interviews, and other content.
Emergency Broadcast Standards:
Emergency Alert Systems (EAS): Standards for implementing emergency alert systems to disseminate important information to the public during emergencies or disasters.
Public Safety Communications: Standards for communication protocols and procedures to coordinate with emergency services and agencies during crises.
Accessibility Standards:
Closed Captioning: Standards for providing closed captioning for the hearing impaired, ensuring accessibility to radio broadcasts.
Descriptive Video Service (DVS): Standards for providing audio descriptions of visual content for the visually impaired.
Ethical Standards:
Journalistic Integrity: Guidelines for ethical reporting and journalism standards, including accuracy, fairness, and impartiality.
Disclosure of Sponsored Content: Standards for disclosing sponsored or paid content to maintain transparency and trust with the audience.
Conflict of Interest Policies: Standards for identifying and managing conflicts of interest in news reporting and programming.
Health and Safety Standards:
Electromagnetic Radiation Exposure Limits: Standards set by health organizations and regulatory bodies to limit human exposure to electromagnetic radiation emitted by radio transmitters.
Workplace Safety: Standards for ensuring the safety of radio station personnel and compliance with occupational health and safety regulations.
These standards are often enforced by governmental regulatory agencies, industry organizations, and professional associations to ensure the quality, integrity, and safety of radio broadcast coverage.
This content is accessible to paid subscribers. To view it please enter your password below or send mike@standardsmichigan.com a request for subscription details.
This content is accessible to paid subscribers. To view it please enter your password below or send mike@standardsmichigan.com a request for subscription details.
West Virginia University is integrated with the city of Morgantown in a way that shares some strong similarities with many European universities, though not identically in every aspect.
Many classic European universities (e.g., in cities like Oxford, Cambridge, Bologna, Paris/Sorbonne, Heidelberg, or Utrecht) are deeply embedded in their urban fabric. Buildings are often scattered throughout the historic city center, with lecture halls, libraries, and administrative spaces intermixed among shops, residences, cafes, and public streets rather than being confined to a walled-off or peripheral “campus.”
In Morgantown the university and city feel like one continuous, walkable entity — the institution essentially helped shape or co-evolved with the town over centuries, creating a seamless “town-gown” blend where university life spills directly into city life and vice versa.
West Virginia University is cutting over 140 faculty and gutting its liberal arts programs, but it still has money for training sessions on implicit bias, microaggressions, and DEI in research. pic.twitter.com/DYoTk8RjTL
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
