

Millimeter & Submillimeter Wave
Experimentally applied millimeter waves and their non-thermal effects on biosystems
Millimeter and submillimeter waves (MMWs and SMWs) demonstrate profound biological effects through non-thermal mechanisms, influencing molecular interactions, cellular signaling, and systemic coherence. This section examines the mechanisms underlying their effects, experimental evidence supporting their role in biological modulation, and their potential in therapeutic applications. ...
Emphasis is placed on their interactions with water structures, bioelectric fields, and resonance phenomena, which underlie their diverse biological impacts.
Millimeter and submillimeter waves, encompassing frequencies from 30 GHz to 300 GHz and extending into the terahertz range, are integral to modern communication technologies and medical research. Beyond their technological utility, these electromagnetic waves influence biological systems through both direct molecular interactions and modulation of systemic coherence. This section explores the non-thermal mechanisms and experimental findings that elucidate their role in biology and medicine.
Mechanisms of Biological Interaction:
Non-Thermal Effects:
MMWs and SMWs induce non-thermal biological responses through resonance interactions with molecular and cellular structures, including DNA and water clusters (Kalantaryan et al., 2024).
These effects bypass thermal thresholds, modulating cellular processes through biophysical and bioelectric mechanisms.
Water Structures and Resonance Phenomena:
MMWs interact with water’s structured domains, enhancing coherence and affecting molecular dynamics. Frequencies such as 50.3 GHz resonate with water’s hexagonal molecular structures, altering properties like density and hydration (Kalantaryan et al., 2023).
Structured water domains facilitate energy transfer and molecular alignment, crucial for cellular and systemic functions.
Membrane and Ion Channel Modulation:
MMWs affect voltage-gated calcium channels (VGCCs), altering ion flux and cellular excitability (Debouzy et al., 2022).
These interactions influence bioelectric fields, aligning cellular activities and supporting systemic coherence.
Biological Effects:
Molecular and Cellular Responses:
Enhanced binding affinity of biologically active molecules to DNA under MMW exposure highlights their role in molecular stability and signaling (Kalantaryan et al., 2024).
Increased enzymatic activity, such as α-amylase in wheat seeds, suggests MMWs support metabolic regulation and energy dynamics (Poghosyan et al., 2023).
Systemic Coherence and Regeneration:
MMWs improve tissue repair and coherence by modulating bioelectric fields and cytokine responses (Polyakova et al., 2021).
They restore electromagnetic homeostasis in diseased states, aligning molecular oscillations with healthy rhythms.
Therapeutic Applications:
Oncology:
MMWs at specific frequencies selectively target tumor cells, inducing apoptosis and senescence without affecting healthy tissues. Frequencies around 50.3 GHz enhance the therapeutic efficacy of DNA-interacting drugs like doxorubicin (Zhao et al., 2020).
Pain and Inflammation Management:
Non-invasive applications of MMWs reduce inflammation and pain sensitivity, offering potential in chronic pain and inflammatory conditions (Chuyan et al., 2020).
Neurological Rehabilitation:
MMW therapies enhance neuronal recovery and modulate neurotransmitter levels, with promising results in treating traumatic brain injuries and neurodegenerative diseases (Korshnyak, 2019).
Agricultural and Environmental Applications:
MMW exposure improves seed germination and enzymatic activities in plants, suggesting applications in sustainable agriculture (Poghosyan et al., 2023).
Experimental Evidence:
Studies confirm frequency-specific effects of MMWs, such as:
Increased hydration and stabilization of DNA-protein complexes under 50.3 GHz (Kalantaryan et al., 2024).
Enhanced amylase activity and seedling growth under 42.2-50.3 GHz exposure, correlating with metabolic upregulation (Poghosyan et al., 2023).
Modulation of water density and structured domains under frequencies resonating with water’s natural oscillations (Kalantaryan et al., 2023).
Discussion: MMWs and SMWs represent a convergence of electromagnetic research and biomedicine, highlighting their potential in modulating biological systems at molecular and systemic levels. Their ability to restore coherence, enhance molecular interactions, and support regenerative processes underscores their therapeutic versatility. Future research should explore their quantum biological implications and integrative applications in healthcare and technology.
Conclusion: Millimeter and submillimeter waves demonstrate significant biological effects through non-thermal mechanisms, influencing coherence and energy dynamics across scales. By leveraging these properties, MMWs offer innovative solutions for therapeutic interventions, sustainable agriculture, and advanced biophysical research.
Keywords: millimeter waves, submillimeter waves, non-thermal effects, structured water, bioelectric fields, regenerative medicine, coherence, molecular resonance.
-Text generated by AI superficially, for more specific but also more surprising data check the tables below-Very related sections:
↑ text updated (AI generated): 30/12/2024
↓ tables updated (Human): 26/12/2024
Applied Fields - Experimental
Millimeter & Submillimeter Wave
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SEE ALSO THIS (subsection on terahertz and biophotonic signals in neurons), THIS (subsection on biomolecular interaction mainly in terahertz frequency) OR THIS (Frohlich collective excitations in terahertz frequency). | ||||||
F | ![]() | Terahertz Irradiation Improves Cognitive Impairments and Attenuates Alzheimer’s Neuropathology in the APPSWE/PS1DE9 Mouse: A Novel Therapeutic Intervention for Alzheimer’s Disease | 0.14 THz - 25 mW/cm2 | 2024-(15) | Jun Zhang, Yixin Chen, Yarui Zhao, Panpan Wang, Hongbin Ding, Cong Liu, Junhong Lyu, Weidong Le | |
F | ![]() | Theoretical investigation on the effect of terahertz wave on Ca2+ transport in the calcium channel | - | ![]() | 2021-(20) | Lianghao Guo, Wenfei Bo, Kaicheng Wang, Shaomeng Wang, Yubin Gong |
F | ![]() | Terahertz Exposure Enhances Neuronal Synaptic Transmission and Oligodendrocyte Differentiation in vitro | 3.1 THz - 0.07 mW/cm2 | ![]() | 2021-(22) | Xianghui Zhao, Ming Zhang, Yuming Liu, Haiying Liu, Keke Ren, Qian Xue, Haifeng Zhang, Na Zhi, Wenting Wang, Shengxi Wu |
A | ![]() | Impact of Sub-Millimeter Waves on the Assembly Kinetics of Microtubules | - | ![]() | 2018-(1) | Xomalin G. Peralta, Jody C. Cantu, Cesario Z. Cerna, Ibtissam Echchgadda |
F | ![]() | Numerical and experimental studies of mechanisms underlying the effect of pulsed broadband terahertz radiation on nerve cells (in vitro) | 0.1-2 THz - 0.00007-0.011 mW/cm2 | ![]() | 2014-(6) | M. V. Duka, L. N. Dvoretskaya, N. S. Balbekin, M. K. Khodzitskii, S. A. Chivilikhin, O. A. Smolyanskaya |
A | ![]() | Changing growth of neurites of sensory ganglion by terahertz radiation (in vitro) | 0.05-2 THz - 0.0005-0.05 mW/cm2 | ![]() | 2012-(1) | M. V. Tsurkan, O. A. Smolyanskaya, V. G. Bespalov, V. A. Penniyainen, A. V. Kipenko, E. V. Lopatina, B. V. Krylov |
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