“Torsion fields exist and can be used for communication and other practical applications”

• Claim: Torsion fields exist and can be used for communication and other practical applications
• Verdict: CONTEXT DEPENDENT — the term has two radically different meanings
• Evidence Level: L2 (theoretical physics) / L1 (pseudoscientific claims)
• Key Anomaly: A single term describes both a legitimate mathematical concept in gravity theory and pseudoscientific claims about faster-than-light communication and consciousness interaction
• 30-Second Check: Torsion fields in Einstein-Cartan theory are real mathematics. Torsion fields for communication or paranormal phenomena are pseudoscience without experimental confirmation

Steelman — What Proponents Claim

Proponents of torsion fields as a practical phenomenon make a wide spectrum of claims that must be divided into two categories:

Legitimate Scientific Claims:

Theoretical physicists assert that torsion fields represent a geometric property of spacetime in extended theories of gravity. In Einstein-Cartan theory, torsion is a mathematical generalization of general relativity where spacetime possesses not only curvature but also torsion (S004). This concept is developed in peer-reviewed publications, including systematic construction of low-energy effective Lagrangians for the Einstein-Cartan formulation (S004).

Researchers also apply torsion concepts to cosmology, studying the dynamic evolution of physical parameters in multiscalar gravitational models within the context of teleparallelism (S006). Torsion concepts find application in describing the physics of various materials, from condensed matter to cosmological scales (S005).

Pseudoscientific Claims:

Another group of proponents claims that torsion fields can be used for communication purposes due to non-local phenomena related to objects generating this field (S009). These claims include the possibility of faster-than-light information transfer, consciousness interaction, and revolutionary technological applications.

Some sources assert that "torsion fields are currently perceived as science fiction," but such perception is allegedly incorrect since the existence of torsion fields can be proven (S001, S007). These sources attempt to legitimize the torsion field concept for a broad audience, often mixing legitimate physics with unsubstantiated claims.

It is claimed that research results motivate widespread use of torsion field generation methods in future research and development of torsion communication (S010). Some sources describe torsion fields as scalar, transmitting information holographically without respect to distance or time (S016).

What the Evidence Actually Shows

Legitimate Theoretical Physics:

Evidence from peer-reviewed sources confirms that torsion is a mathematically correct concept in theoretical physics. A publication in Physical Review D (S004) presents a systematic approach to building gravity theory with torsion, cited 64 times in scientific literature. This demonstrates that torsion as a geometric property of spacetime is a subject of serious theoretical investigation.

A review article in MDPI Universe (S005) with 22 citations shows the application of torsion concepts at different scales — from materials science to cosmology. This indicates that torsion concepts have legitimate application in describing physical systems through geometric formalism.

Research in cosmology (S006) with 3 citations demonstrates active work studying dynamical systems in multiscalar-torsion cosmology. This confirms that torsion theories of gravity are an active research area in modern theoretical physics.

Absence of Evidence for Pseudoscientific Claims:

Wikipedia explicitly classifies torsion fields as a recurring feature of many pseudoscientific proposals, claiming that quantum spin of particles can cause emanations for communication (S011). This authoritative definition clearly separates pseudoscientific claims from legitimate physics.

Critically, claims about communication applications of torsion fields appear in sources with questionable peer-review standards. An article on non-linear phenomena of torsion field communication is published on viXra (S009) — a preprint server not requiring peer review, unlike recognized scientific journals. This is a red flag for pseudoscience.

Sources claiming practical applications of torsion fields for communication (S010) do not provide experimental data reproducible under controlled conditions. The absence of publications in major physics journals (Physical Review, Nature, Science) on these claims is telling.

Critical Distinction:

The torsion tensor in mathematical physics measures the failure of the Lie bracket of vector fields to coincide with their covariant derivative (S015). This is a rigorous mathematical definition used in differential geometry and general relativity. However, this has no relation to claims about "torsion fields" generated by quantum spin for communication.

Conflicts and Uncertainties

Terminological Confusion:

The main conflict arises from using one term to describe two completely different concepts. This creates significant confusion in public discourse, where the legitimacy of mathematical torsion in Einstein-Cartan theory is used to lend scientific appearance to pseudoscientific claims.

Some sources attempt to present torsion fields as a unified concept transitioning from theoretical physics to practical applications (S001, S007, S008). These publications in the European Journal of Applied Physics require careful verification of the journal's peer-review standards, as they may blur the boundary between legitimate science and pseudoscience.

Source Quality:

There is a clear gap in quality between sources discussing torsion in the context of theoretical physics and sources making claims about practical applications. High-quality sources (Physical Review D, MDPI Universe) focus on mathematical properties and theoretical consistency. Low-quality sources (viXra, questionable journals) make extraordinary claims without corresponding evidence.

A publication in the Oriental Journal of Physical Sciences (S003) discusses the generalization of general relativity to Einstein-Cartan theory, which is a legitimate topic, but the quality and impact of the regional journal require assessment.

Lack of Experimental Verification:

A key uncertainty is that even legitimate theoretical extensions of general relativity with torsion lack direct experimental confirmation. Torsion effects in Einstein-Cartan theory are predicted to be extremely small and difficult to detect with current technology.

For pseudoscientific claims about communication applications, the absence of experimental verification is absolute. No controlled study has demonstrated the possibility of using "torsion fields" for information transfer.

Historical Problem:

Pseudoscientific concepts of torsion fields have roots in Soviet-era research, where some scientists made unsubstantiated claims about new physical fields. This history creates additional confusion, as some of these researchers had legitimate scientific degrees, but their work on torsion fields did not meet scientific standards.

Interpretation Risks

Risk 1: False Legitimization of Pseudoscience

The greatest risk lies in using the existence of a legitimate mathematical concept of torsion to lend scientific credibility to pseudoscientific claims. The statement "torsion fields exist" is technically correct in the context of Einstein-Cartan theory, but completely false in the context of claims about communication or paranormal phenomena.

Content creators must be extremely careful not to create the impression that legitimate physical theory supports pseudoscientific applications. Simply mentioning that "physicists study torsion fields" can be misinterpreted as supporting all claims about torsion fields.

Risk 2: Rejection of Legitimate Science

The opposite risk is complete rejection of all torsion-related research as pseudoscience. This would be unfair to theoretical physicists working on extensions of general relativity. Einstein-Cartan theory is mathematically correct and deserves study, even if its experimental effects have not yet been detected.

Critics must distinguish between legitimate theoretical research published in high-level peer-reviewed journals and pseudoscientific claims in sources of questionable quality.

Risk 3: Improper Source Evaluation

Some sources deliberately blur the boundary between legitimate science and pseudoscience. Publications that begin with discussion of Einstein-Cartan theory and then transition to claims about communication applications without experimental evidence present particular danger.

Readers should verify: (1) whether the source is published in a recognized peer-reviewed journal, (2) whether the work is cited in mainstream scientific literature, (3) whether extraordinary claims are made without corresponding extraordinary evidence, (4) whether there is experimental verification of claims.

Risk 4: Violation of Physics Principles

Claims about faster-than-light communication through torsion fields violate fundamental principles of relativity theory. Even if torsion fields exist in a mathematical sense, this does not mean they can transmit information faster than light. Such claims require not just evidence, but revolutionary revision of all physics.

The principle of causality and the speed of light limit are cornerstones of modern physics, confirmed by countless experiments. Any claim of their violation requires exceptionally rigorous evidence, which has not been provided.

Risk 5: Commercial Exploitation

Pseudoscientific claims about torsion fields are often linked to commercial products or services promising revolutionary technologies. Sources claiming practical applications without experimental evidence may be motivated by financial interests rather than scientific truth.

Recommendations for Critical Thinking:

When evaluating claims about torsion fields, the following questions must be asked: Is the research published in a journal with rigorous peer review? Have results been reproduced by independent researchers? Do claims conform to established physical principles or require their radical revision? Are quantitative experimental data provided? Is there citation in mainstream scientific literature?

For torsion fields, the answers clearly separate legitimate theoretical physics (yes for Einstein-Cartan theory) from pseudoscientific claims about communication (no on all criteria).