NEWS CENTER

新闻中心

奥博资讯

媒体报道

体系论文

首页

Misreading CT Scans: A Fundamental Reversal in the Underlying Logic of Life Sciences

发布时间：

2026-08-19

Misreading CT Scans: A Fundamental Reversal in the Underlying Logic of Life Sciences

Sun Zuodong

There is a sobering cognitive phenomenon: raw observational data can be reliable on its own, yet a reversed interpretive direction afterwards will yield completely opposite conclusions. In clinical CT interpretation, misjudging the left-right orientation will lead to incorrect lesion localization even when the imaging data itself contains no errors.

This warning about cognitive misalignment is equally pertinent to the field of cellular bioelectricity. In their classic experiment on squid giant axons, Hodgkin and Huxley obtained objectively valid potential waveforms. The full sequence reads as follows: the resting potential of −60 mV rises to −40 mV, jumps further to +40 mV, then decays rapidly and falls back to −60 mV. The observed waveforms are authentic and reproducible. The problem lies not with experimental measurements themselves, but with later interpretations of ion movements behind these waveforms. Deductions from the present model suggest this is no minor discrepancy, but a thorough reversal of direction.

Following the publications by Agre on aquaporins and by MacKinnon on potassium-ion channels, the scientific community gradually adopted the mainstream paradigm that each ion type has its own independent exclusive channel. The cell membrane is treated as an equivalent capacitor, and Ohm’s law is applied to analyse variations in membrane potential. In contrast, deductions derived from the potassium-ion origami-windmill shared-pore model show that during the rising and falling phases of an action potential, the transmembrane flow direction of potassium ions is diametrically opposed to what prevailing theory predicts. Inward influx is mistaken for outward efflux, and outward efflux is misidentified as inward influx. Throughout the entire progression from resting potential to action potential, all qualitative judgements of ion flow direction are inverted. Much like reversed positive-negative terminals in an electrical circuit or misconnected water supply and drainage pipelines, the whole logical framework becomes misaligned.

Once the core directional judgement gets reversed, the entire subsequent research chain drifts astray. It is analogous to blood-pressure regulation: raising blood pressure when it ought to be lowered, and lowering it when it ought to be raised — the intervention direction is totally wrong. According to this hypothesis, the intrinsic mechanisms behind heavy-metal-ion invasion into cells, action-potential suppression, and progressive brain-cell damage culminating in dementia and other degenerative changes, together with corresponding disease targets and therapeutic strategies, may all rest upon this inverted understanding. Researchers devote substantial funding and manpower, adding successive assumptions to patch up theoretical contradictions. This resembles the scenario where clinicians adjust surgical instruments while failing to fix the root cause — misoriented CT interpretation.

Mechanistic studies on epilepsy, amyotrophic lateral sclerosis (ALS), dementia and other neurodegenerative diseases, as well as certain tumours, are built upon this foundational body of knowledge. If the original mechanistic interpretation carries directional bias, some downstream experimental designs and drug-target development strategies may fail to reach the true root causes of diseases. This differs from the historical debate between geocentrism and heliocentrism, which remained largely conceptual and exerted no direct effect on the human body. Should this hypothesis be validated experimentally, current understandings of certain disease targets and intervention approaches will need reassessment, which would exert profound impacts on research concerning neurodegenerative diseases and related fields.

I do not deny the experimental achievements of previous generations of researchers, nor do I dismiss their contributions. These deductions have already been published in multiple papers and are not impromptu speculations. The origami-windmill shared-pore model provides clear, executable protocols for falsification. The academic community already has access to required equipment and research teams. Decisive experiments can be conducted simply to verify the actual transmembrane flow direction of potassium ions at each phase of the action potential. If the ion-flow directions posited by the mainstream paradigm prove correct, my entire hypothesis will be invalid.

As someone who has chanced upon this hidden flaw, I feel duty-bound to bring this issue to public attention when evident risks emerge while research keeps advancing along a questionable path. Raw experimental data never lie, yet human interpretations of mechanisms behind such data may undergo fundamental inversion.

This is not about proving myself right or wrong personally; it bears on the trajectory of science and patients’ lives. Confronted with this major unresolved question fundamental to life sciences, the academic community should take this critical issue seriously and conduct decisive experiments with due caution. The sooner verification and screening are completed, the fewer grievous detours humanity will take in tackling major diseases.

Disclaimer: The deductions presented in this article constitute a theoretical hypothesis. This article does not negate existing clinical practice and shall not be used for clinical diagnosis or medication guidance. The validity of this hypothesis awaits further laboratory testing.