I. The Statutory Definition

In 1996, Congress passed the Telecommunications Act, the most comprehensive overhaul of federal communications law since the original Communications Act of 1934. Among its provisions, codified at 47 U.S.C. § 153(50), is a definition of “telecommunications” that has governed every subsequent regulatory action in the field.¹

The definition contains three elements. First, there must be a transmission. Second, the transmission must occur “between or among points specified by the user.” Third, the information transmitted must arrive “without change in the form or content” as sent and received. The statute does not specify the medium. It does not require wires, fiber optics, or radio waves. It does not require that the transmission cross a property line, or that the operator be a corporation, or that the network be made of silicon. It requires only that information move, point to point, at the direction of the user, arriving intact.

This is a functional test. It describes what a telecommunications network does, not what it is made of. And it can be applied to any system that satisfies its elements—including one constructed from lipid bilayers, ion channels, and approximately 86 billion nerve cells.

II. The Network Architecture

The human nervous system is, by any engineering definition, a telecommunications network. It comprises approximately 86 billion neurons, as established by Azevedo et al. in their 2009 isotropic fractionator study, the first direct count of neurons in the human brain.² These neurons form an estimated 100 trillion synaptic connections, each one functioning as a signal relay point.³

For scale, the entire global telecommunications infrastructure—every telephone line, fiber optic cable, cellular tower, and satellite uplink on Earth—contains approximately 1.3 billion fixed-line subscriptions and 8.6 billion mobile connections, according to the International Telecommunication Union.⁴ The synaptic network within a single human skull outnumbers the world’s telephone connections by a factor of roughly ten thousand.

The total length of myelinated nerve fibers in the human brain alone is estimated at between 150,000 and 180,000 kilometers, according to research compiled by the Harvard BioNumbers database.⁵ That is approximately 100,000 miles of transmission line contained within a structure the size of a cantaloupe. The entire U.S. fiber optic network, by comparison, spans approximately 60 million miles. But per cubic centimeter of occupied space, the nervous system achieves a wiring density that no telecommunications provider has approached.

The system transmits signals at velocities ranging from 0.5 meters per second in unmyelinated C fibers to 120 meters per second in large myelinated A-alpha fibers, as documented in the clinical neurology literature and confirmed by standard nerve conduction studies.⁶ The fastest signals—those carrying motor commands and proprioceptive data—travel at 268 miles per hour. This is slower than fiber optic transmission but considerably faster than the postal service, which the FCC also regulates.

III. The Transmission Question

Section 153(50) requires that the system transmit “information of the user’s choosing.” This element is satisfied with disturbing ease.

When a person decides to move their right index finger, the motor cortex generates an action potential that propagates down the corticospinal tract, crosses a synapse in the anterior horn of the spinal cord, and travels along a peripheral motor neuron to the neuromuscular junction, where it triggers muscle contraction. The user chose the information. The network delivered it. The finger moved. The message arrived without change in form or content.

The sensory system operates in reverse but satisfies the same test. A photon strikes a retinal rod cell, triggering a cascade that generates a neural signal. That signal travels via the optic nerve to the lateral geniculate nucleus, then to the primary visual cortex, arriving as a precisely encoded representation of light frequency and intensity. The transmission occurs between specified points—retina to cortex—and the information arrives in a form the receiving neurons can decode without loss of content.⁷

The throughput is staggering. The human sensorium transmits approximately 11 million bits of information per second to the brain, according to research by Norretranders and subsequent estimates in the cognitive science literature. The conscious mind processes roughly 50 bits per second of that stream.⁸ The remaining 10,999,950 bits per second are processed by subsystems that operate without the user’s awareness—which, under telecommunications law, would constitute unauthorized background data processing by an unlicensed carrier.

IV. The Electromagnetic Emissions

The regulatory case becomes considerably more urgent when one considers that the human nervous system does not merely transmit information internally. It radiates electromagnetic energy into the surrounding environment. This is not a metaphor. It is a measurable physical phenomenon that has been documented for nearly a century.

Electroencephalography, or EEG, detects electrical potentials generated by the synchronized activity of cortical neurons, measured at the scalp surface. These signals oscillate at frequencies that fall squarely within the electromagnetic spectrum the FCC is charged with managing. Delta waves oscillate at 0.5 to 4 Hz. Theta waves at 4 to 8 Hz. Alpha waves at 8 to 13 Hz. Beta waves at 13 to 30 Hz. Gamma waves at 30 to 100 Hz or higher.⁹

Magnetoencephalography, or MEG, detects the magnetic fields produced by the same neural currents. These fields, while extraordinarily faint—on the order of 10 to 1,000 femtotesla—are detectable at a distance from the skull using superconducting quantum interference devices.¹⁰ The brain is, in measurable fact, a radio transmitter. It emits electromagnetic radiation that propagates beyond the boundary of the body and can be detected by external receivers.

Under 47 U.S.C. § 301, “no person shall use or operate any apparatus for the transmission of energy or communications or signals by radio” without a license granted under the provisions of the Communications Act.¹¹ The statute uses “apparatus.” It does not define the term. A device that converts electrochemical energy into electromagnetic radiation and emits that radiation into the environment is, by any engineering definition, an apparatus for the transmission of energy by radio. The fact that it is made of neurons rather than transistors is not a distinction the statute recognizes.

V. The Frequency Allocation Problem

The FCC maintains the Table of Frequency Allocations, codified at 47 C.F.R. § 2.106, which assigns every frequency band in the electromagnetic spectrum to specific services and users.¹² The table begins at 8.3 kHz, but the Commission’s jurisdiction extends to all electromagnetic emissions that could cause interference with licensed services.

The frequency bands occupied by human neural oscillations—0.5 to 100 Hz and above—fall below the lowest frequencies formally allocated in the table. This does not place them outside the FCC’s authority. It means they occupy unallocated spectrum, which is arguably worse. Unallocated spectrum is not unlicensed spectrum. It is spectrum for which no allocation framework exists because, presumably, the Commission did not anticipate that 8 billion biological transmitters would be operating in it continuously.

The operating characteristics of the neural transmitter are not trivial. Individual neurons fire at rates ranging from 0.1 Hz to over 500 Hz in fast-spiking interneurons, as documented by Bhatt et al. in comparative studies of cortical neurons across species.¹³ The aggregate electromagnetic signature of 86 billion neurons firing in partially synchronized patterns produces a broadband emission profile that spans multiple frequency bands simultaneously. In telecommunications engineering, this is called spread-spectrum transmission. The FCC requires a license for it.

VI. The Common Carrier Obligation

Title II of the Communications Act imposes upon telecommunications carriers an obligation to operate as common carriers—that is, to provide service to the public on a nondiscriminatory basis. Under 47 U.S.C. § 201(a), every common carrier must furnish communication service “upon reasonable request therefor” and must establish “just and reasonable” charges.¹⁴

The human nervous system does not operate as a common carrier. It does not accept third-party traffic. It refuses interconnection with other nervous systems. It provides no public access to its transmission facilities whatsoever. Each nervous system operates as an entirely private, closed network, serving a single user without regard to the public interest, convenience, or necessity.

This is, under current FCC doctrine, precisely the kind of behavior that prompted the Commission’s 2015 Open Internet Order, which reclassified broadband internet access service as a Title II telecommunications service to prevent network operators from discriminating against third-party content.¹⁵ The nervous system discriminates against all third-party content. It is the most aggressively non-neutral network in existence.

Moreover, 47 U.S.C. § 254 establishes the Universal Service Fund, which requires all telecommunications carriers to contribute to ensuring that Americans in rural and underserved areas have access to telecommunications services at reasonable rates.¹⁶ The current contribution factor stands at approximately 36.6 percent of interstate and international telecommunications revenues. No human nervous system has ever remitted a USF contribution. The aggregate unpaid obligation, across 330 million Americans operating unlicensed telecommunications networks continuously since birth, has never been calculated. We attempted the calculation. The number was unhelpful.

VII. The Enforcement Gap

Under 47 U.S.C. § 503(b), the FCC may impose a forfeiture penalty of up to $100,000 for each violation, and up to $2,067,572 for any single act or failure to act by a non-broadcast entity, based on the most recent inflation adjustment published in 47 C.F.R. § 1.80.¹⁷ Each day of continuing violation constitutes a separate offense.

The average human nervous system has been in continuous, unlicensed operation for approximately 28,800 days, based on the current U.S. life expectancy of 78.8 years as reported by the CDC’s National Vital Statistics System.¹⁸ At the statutory daily maximum of $100,000 per violation, this produces a per-person forfeiture exposure of approximately $2.88 billion over a lifetime. Across 330 million Americans, the aggregate enforcement liability exceeds $950 quadrillion, or roughly 10,000 times the gross world product.

The FCC has not issued a single Notice of Apparent Liability. It has not initiated a single forfeiture proceeding. It has not conducted a single field inspection of a human nervous system despite the fact that every American carries an unlicensed transmitter inside their skull at all times, including in federal buildings, restricted airspace, and the FCC’s own headquarters at 45 L Street NE, Washington, D.C.

VIII. The Infrastructure Implications

The nervous system’s noncompliance extends beyond licensing. Under the FCC’s E-Rate program, established under § 254(h) of the Communications Act, schools and libraries receive discounted telecommunications services funded by USF contributions.¹⁹ If the human nervous system is a telecommunications network—and the statute’s own definition admits no other conclusion—then every student sitting in every classroom in America is simultaneously a USF-eligible service recipient and an unregistered, non-contributing telecommunications carrier. The student is both the customer and the unlicensed provider. The regulatory recursion is total.

The Lifeline program, which provides subsidized phone service to low-income Americans, presents an analogous paradox. The program exists to ensure that no American lacks access to a basic telecommunications connection. But every American, by virtue of possessing a nervous system, already operates the most sophisticated telecommunications network on Earth. The Lifeline benefit is, under this analysis, a subsidy for an inferior duplicate of a system the subscriber already owns and operates—unlicensed, but fully functional.

IX. Conclusion

The evidence is not ambiguous. The Telecommunications Act of 1996 defines telecommunications as the transmission, between or among points specified by the user, of information of the user’s choosing, without change in the form or content of the information as sent and received. The human nervous system satisfies every element of this definition. It transmits information. It transmits between specified points. The user specifies those points. The information arrives intact.

The nervous system further emits electromagnetic radiation that is detectable by external instruments, placing it within the scope of the FCC’s authority over radio transmissions under 47 U.S.C. § 301. It operates in unallocated frequency bands without authorization. It refuses interconnection, declines to contribute to the Universal Service Fund, and has never filed a tariff.

Three hundred and thirty million Americans are operating unlicensed telecommunications networks inside their bodies at this moment. They have been doing so since approximately the fifth week of embryonic development, when the neural tube closes and the first synaptic transmissions begin. Not a single one holds an FCC license. Not a single one has been asked to apply.

The Commission’s silence is not a policy decision. It is a regulatory catastrophe of a scale that admits no bureaucratic remedy. The statute is clear. The science is settled. The nervous system is a telecommunications network, and it has been operating in violation of federal law for the entire history of the species.

Ergo.