(See the end of this post for additional resources.)
Combined effects of constant temperature and radio frequency exposure
on
Aedes mosquito development
Dom NC, Dapari R, Halim NMHNA, Rahman ATA.
Combined effects of constant temperature and radio frequency exposure on
Aedes mosquito development. Sci Rep. 2025 Aug 20;15(1):30571. doi:
10.1038/s41598-025-09383-3.
Abstract
Mosquito-borne diseases, such as dengue, Zika, and chikungunya, pose
significant public health threats, particularly in tropical regions like
Malaysia. Aedes aegypti and Aedes albopictus are primary vectors of
these diseases, with their developmental stages being highly sensitive
to environmental factors. While temperature is a well-known driver of
mosquito biology, the potential influence of anthropogenic factors such
as radio frequency (RF) exposure remains underexplored. This study
investigates the combined effects of temperature and RF exposure on the
developmental stages of these mosquito species to provide insights into
their population dynamics and inform vector control strategies. A
factorial experimental design was employed, incorporating four
temperature conditions (20 °C, 25 °C, 30 °C, and 35 °C) and three RF
exposure levels (900 MHz, 18 GHz, and a control group with no RF
exposure). The developmental durations for hatching, larval, pupation,
and adult emergence stages were monitored daily under controlled
laboratory conditions. Data were analyzed using a quadratic response
surface model to evaluate the main effects and interactions between
temperature and RF exposure. Temperature emerged as the dominant factor
influencing developmental durations, with optimal conditions observed at
30-32 °C. RF exposure, particularly at 18 GHz, acted as a secondary
modulating factor, accelerating developmental stages under certain
temperature conditions. Ae. aegypti exhibited greater sensitivity to
temperature changes compared to Ae. albopictus, which displayed higher
adaptability and resilience to environmental variations. Interaction
effects were most evident at intermediate temperatures (25-30 °C), where
RF exposure synergistically reduced developmental durations. However,
extreme RF exposure levels and suboptimal temperatures prolonged
developmental periods. This study highlights the critical role of
temperature in mosquito development while identifying RF exposure as a
potential modulator under specific conditions. The findings underscore
the importance of considering both environmental and anthropogenic
factors in vector management strategies. Future research should explore
the molecular mechanisms underlying these interactions to refine
predictive models and enhance vector control efforts in rapidly
urbanizing regions.
Conclusion
In
summary, temperature is the primary determinant of mosquito
developmental durations, with RF exposure exerting secondary modulating
effects under specific conditions. Ae. aegypti was more sensitive to environmental variations, while Ae. albopictus
displayed greater resilience and adaptability. These findings provide a
foundation for incorporating environmental variables, including
anthropogenic factors such as RF exposure, into predictive models for
mosquito population dynamics and vector management. Future research
should explore the molecular mechanisms underlying these interactions
and assess their implications for disease transmission and control in
different ecological settings.
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Potential Effects of Anthropogenic Radiofrequency Radiation on Cetaceans
Balmori-de la Puente A, Balmori A.
Potential Effects of Anthropogenic Radiofrequency Radiation on Cetaceans. Radiation. 2024; 4(1):1-16. doi: 10.3390/radiation4010001.
Abstract
Cetaceans
are cast to shore for a large number of reasons, although sometimes it
is not clear why. This paper reviews the types and causes of cetacean
strandings, focusing on mass strandings that lack a direct scientific
explanation. Failure of cetacean orientation due to radiofrequency
radiation and alterations in the Earth’s magnetic field produced during
solar storms stand out among the proposed causes. This paper proposes
the possibility that anthropogenic radiofrequency radiation from
military and meteorological radars may also cause these strandings in
areas where powerful radars exist. A search of accessible databases of
military and meteorological radars in the world was carried out.
Research articles on mass live strandings of cetaceans were reviewed to
find temporal or spatial patterns in the stranding concentrations along
the coast. The data showed certain patterns of spatial and temporal
evidence in the stranding concentrations along the coast after radar
setup and provided a detailed description of how radars may interfere
with cetacean echolocation from a physiological standpoint. Plausible
mechanisms, such as interference with echolocation systems or pulse
communication systems, are proposed. This work is theoretical, but it
leads to a hypothesis that could be empirically tested. Further in-depth
studies should be carried out to confirm or reject the proposed
hypothesis.
Simple Summary
The
number of mass stranding events is dramatically increasing in recent
decades affecting cetacean diversity and conservation. They consist in
the accumulation of cetacean carcasses or live animals along the coast
following certain temporal and spatial patterns. Although some cases can
be explained based on a combination of physical or biological natural
factors, direct human intervention is contributing to many of them.
However, there are still many cases with unknown causes that demand to
increase the efforts to describe possible new threats to cetacean
species. In this context, we evaluate the potential effect of
anthropogenic radiofrequency radiation (i.e., from meteorological and
military radars) that has had a great expansion in the last years and is
known to alter the magnetic receptor organs in several groups of
animals. The aim of this work, was to conduct a bibliographic review
reporting mass stranding events together with a search of radars in the
vicinity areas. The results obtained suggest that anthropogenic
radiofrequency radiation may be considered as a novel factor to
understand some stranding events with unknown causes and proposes some
plausible mechanisms of action.
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Biological effects of electromagnetic
fields on insects:
a systematic review and meta-analysis
Thill A, Cammaerts MC, Balmori A. Biological effects of electromagnetic
fields on insects: a systematic review and meta-analysis. Rev Environ
Health. 2023 Nov 23. doi: 10.1515/reveh-2023-0072.
Abstract
Worldwide, insects are declining at an alarming rate. Among other
causes, the use of pesticides and modern agricultural practices play a
major role in this. Cumulative effects of multiple low-dose toxins and
the distribution of toxicants in nature have only started to be
investigated in a methodical way. Existing research indicates another
factor of anthropogenic origin that could have subtle harmful effects:
the increasingly frequent use of electromagnetic fields (EMF) from
man-made technologies. This systematic review summarizes the results of
studies investigating the toxicity of electromagnetic fields in insects.
The main objective of this review is to weigh the evidence regarding
detrimental effects on insects from the increasing technological
infrastructure, with a particular focus on power lines and the cellular
network. The next generation of mobile communication technologies, 5G,
is being deployed - without having been tested in respect of potential
toxic effects. With humanity's quest for pervasiveness of technology,
even modest effects of electromagnetic fields on organisms could
eventually reach a saturation level that can no longer be ignored. An
overview of reported effects and biological mechanisms of exposure to
electromagnetic fields, which addresses new findings in cell biology, is
included. Biological effects of non-thermal EMF on insects are clearly
proven in the laboratory, but only partly in the field, thus the wider
ecological implications are still unknown. There is a need for more
field studies, but extrapolating from the laboratory, as is common
practice in ecotoxicology, already warrants increasing the threat level
of environmental EMF impact on insects.
Excerpt
Looking back at the history of science, it seems that adverse effects have frequently been reported early on, but mostly been ignored – e.g. in the cases of asbestos, lead and cigarettes. It has typically taken decades to understand the mechanisms of toxicity and for the official position to shift. The European Environment Agency EEA has produced several reports on this topic under the title “Late lessons from early warnings” [146, 147].
Thirty-six of the fifty-five HF-EMF studies reported in this review used field strengths lower than 6 V/m (∼100 mW/m2), and 31 of these 36 studies (86 %) nevertheless found statistically significant adverse effects, starting at about 2 V/m and peaking around 6 V/m. This is below the regulatory thresholds established by the International Commission on Non-Ionizing Radiation Protection (ICNIRP) (41 V/m, or 61 V/m above 2 GHz), and even below the particularly stringent installation limits only found in a handful of countries [94]. (The installation limit is measured where people can stay for long periods of time, i.e. homes, schools, working places and playgrounds for kids.)
Panagopoulos et al. detected a bioactive window at a distance of 20–30 cm from GSM mobile phones, where the power density equaled 100 mW/m2 (∼6 V/m), and where toxic effects in Drosophila are already observed after a 1-min exposure. These results have been replicated several times [148], [149], [150]. If this is generally true for insects, the limit for toxic effects would be 100 times below the current ICNIRP limit (10 W/m2 or 61 V/m), which protects only against thermal effects (in humans), and possibly 1,000 times lower than current limits for chronic exposure, i.e. 10 mW/m2 or 2 V/m (all comparisons based on power densities, i.e. energy per surface area units) [94]. A recent study found significant effects on gene transcription and chromosomal abnormalities using a WiFi signal at 4.8 mW/m2 or 1.35 V/m in Drosophila exposed for 9 days [145]. These findings of biological effects in insects starting at around 2 V/m imply that existing standards would have to be revised and made more stringent, to include nature protection/wild-life concerns.
Current ambient power densities are generally still below 10 or 100 mW/m2 (i.e. 2 or 6 V/m). A recent study measured values of 0.17–0.53 V/m in the field (0.1–0.8 mW/m2) [101]. Values mainly in the range of 0.5–1 V/m were found around schools in Crete [151]. Nationwide measurements of the National Observatory of electromagnetic fields (NOEF) in Greece found average values higher than 1 V/m in 55 % of sites, and values greater than 2 V/m in 20 % of measurement sites [152]. A recent review lists power densities ranging from 0.23 V/m in Swiss residential areas to 1.85 V/m in an Australian university neighborhood [86]. In urban hot spots (UK), a maximum of 150 mW/m2 (7.5 V/m) and an average of 25 mW/m2 (3.3 V/m) were measured (including WiFi) [153]. The French “Agence nationale des fréquences” (ANFR) found an average of 1.17 V/m at 1,300 5G base stations, and the authors expect a 20 % increase in the next years [154]. In Belgium, Italy, Switzerland, Russia and China, the installation limit is 6 V/m (100 mW/m2) for mobile telephony base stations, whereas Germany, the UK, the USA and many other countries adhere to the much higher ICNIRP limits [94, 155]. The ICNIRP limits have recently been questioned, since they are based on findings from more than 20 years ago, and their assumptions have been proven false [156]. Furthermore, the ICNIRP limits are designed to protect humans and have not been tested as to their adequacy in protecting wildlife and insects [157].
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Low-level EMF effects on wildlife and plants:
What research tells us about an ecosystem approach
Levitt BB, Lai HC and Manville AM II. (2022) Low-level EMF effects on wildlife and plants: What research tells us about an ecosystem approach. Front. Public Health 10:1000840. doi: 10.3389/fpubh.2022.1000840.
Abstract
There is enough evidence to indicate we may be damaging non-human
species at ecosystem and biosphere levels across all taxa from rising
background levels of anthropogenic non-ionizing electromagnetic fields
(EMF) from 0 Hz to 300 GHz. The focus of this Perspective paper is on
the unique physiology of non-human species, their extraordinary
sensitivity to both natural and anthropogenic EMF, and the likelihood
that artificial EMF in the static, extremely low frequency (ELF) and
radiofrequency (RF) ranges of the non-ionizing electromagnetic spectrum
are capable at very low intensities of adversely affecting both fauna
and flora in all species studied. Any existing exposure standards are
for humans only; wildlife is unprotected, including within the safety
margins of existing guidelines, which are inappropriate for
trans-species sensitivities and different non-human physiology.
Mechanistic, genotoxic, and potential ecosystem effects are discussed.
Excerpt
Radiofrequency radiation is a form of energetic air pollution and should be regulated as such (25). U.S. law (130) [42 USC § 7602 (g)] defines air pollution as:
“The term “air pollutant” means any air pollution agent or combination of such agents, including any physical, chemical, biological, radioactive (including source material, special nuclear material, and byproduct material) substance or matter which is emitted into or otherwise enters the ambient air. Such term includes any precursors to the formation of any air pollutant, to the extent the Administrator has identified such precursor or precursors for the particular purpose for which the term “air pollutant” is used.”
Unlike classic chemical toxicology pollutants in which a culprit can typically be identified and quantified, RFR may function as a “process” pollutant in the air not unlike how endocrine disruptors function in food and water in which the stressor causes a cascade of unpredictable systemic effects. The stimulus in the RFR analogy would be physical/energetic rather than chemical.
Long-term chronic low-level EMF exposure guidelines, which do not now exist, should be set accordingly for wildlife; mitigation techniques where possible should be developed; full environmental reviews should be conducted prior to the licensing/buildout of major new technologies like 5G; and environmental laws/regulations should be strictly enforced (25). We have a long over-due obligation to consider potential consequences to other species from our current unchecked technophoria—an obligation we have thus far not considered before species go extinct. In the views of these authors, the evidence requiring action is clear.
Open access paper: https://www.frontiersin.org/articles/10.3389/fpubh.2022.1000840
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Sep 26, 2021
The Effects of Non-Ionizing Electromagnetic Fields on Flora and Fauna
(Levitt, Lai, and Manville)
The journal, Reviews on Environmental Health, just published the final part of a three-part monograph that examines the effects
of non-ionizing
electromagnetic fields (EMF), including wireless radiation from cell
towers and EMF from power lines, on flora and fauna. This 150-page tome
(plus supplements) written by B. Blake Levitt, Henry Lai, and Albert
Manville cites more than 1,200 references.
B. Blake Levitt, an award-winning journalist/author and former contributor to the New York Times, has specialized in
medical and science writing for over three decades. Since the late 1970's, she has researched the
biological effects of nonionizing radiation. Henry Lai is a scientist and bioengineering Professor Emeritus at the University of Washington and former Editor-in-Chief of Electromagnetic Biology and Medicine.
Dr. Lai is best known for his research published in 1995 which
concluded that low-level microwave radiation caused DNA damage in rat
brains. Albert Manville is a retired branch manager and senior wildlife
biologist in the
Division of Migratory Bird Management
at the U.S. Fish and Wildlife Service. Dr. Manville has served as an adjunct professor and lecturer for more than two decades at Johns Hopkins University where he
has taught field classes in ecology, conservation biology, and wildlife
management.
The abstracts and excerpts from this three-part monograph appear below.
Effects of non-ionizing electromagnetic fields on flora and fauna, part 1.
Rising ambient EMF levels in the environment B.
Blake Levitt, Henry C. Lai, Albert M. Manville. Effects of non-ionizing
electromagnetic fields on flora and fauna, part 1. Rising ambient EMF
levels in the environment. Rev Environ Health. 2021 May 27. doi:
10.1515/reveh-2021-0026.
Abstract
Ambient
levels of electromagnetic fields (EMF) have risen sharply in the last
80 years, creating a novel energetic exposure that previously did not
exist. Most recent decades have seen exponential increases in nearly all
environments, including rural/remote areas and lower atmospheric
regions. Because of unique physiologies, some species of flora and fauna
are sensitive to exogenous EMF in ways that may surpass human
reactivity. There is limited, but comprehensive, baseline data in the
U.S. from the 1980s against which to compare significant new surveys
from different countries. This now provides broader and more precise
data on potential transient and chronic exposures to wildlife and
habitats. Biological effects have been seen broadly across all taxa and
frequencies at vanishingly low intensities comparable to today’s ambient
exposures. Broad wildlife effects have been seen on orientation and
migration, food finding, reproduction, mating, nest and den building,
territorial maintenance and defense, and longevity and survivorship.
Cyto- and geno-toxic effects have been observed. The above issues are
explored in three consecutive parts: Part 1 questions today’s ambient
EMF capabilities to adversely affect wildlife, with more urgency
regarding 5G technologies. Part 2 explores natural and man-made fields,
animal magnetoreception mechanisms, and pertinent studies to all
wildlife kingdoms. Part 3 examines current exposure standards,
applicable laws, and future directions. It is time to recognize ambient
EMF as a novel form of pollution and develop rules at regulatory
agencies that designate air as ‘habitat’ so EMF can be regulated like
other pollutants. Wildlife loss is often unseen and undocumented until
tipping points are reached. Long-term chronic low-level EMF exposure
standards, which do not now exist, should be set accordingly for
wildlife, and environmental laws should be strictly enforced.
https://pubmed.ncbi.nlm.nih.gov/34047144/
Conclusion
Ambient
background levels of EMF have risen sharply in the last four decades,
creating a novel energetic exposure that previously did not exist at the
Earth’s surface, lower atmospheric levels, or underwater environments.
Recent decades have seen exponential increases in nearly all
environments, including remote regions. There is comprehensive but
outdated baseline data from the 1980s against which to compare
significant new surveys from other countries which found increasing RFR
levels in urban, suburban and remote areas, primarily from cell
infrastructure/phone/WiFi exposures. One indicative comparison of
similar sites between 1980 and today found a 70-fold (7,000%) increase
in ambient RFR [149]. The increased infrastructure required for 5G
networks will widely infuse the environment with new atypical exposures,
as are increasing satellite systems communicating with ground-based
civilian networks. The new information provides broader perspective with
more precise data on both potential transient and chronic exposures to
wildlife and habitats. Biological effects have been seen broadly across
all taxa at vanishingly low intensities comparable to today’s ambient
exposures as examined in Part 2. The major question presented in Part 1
was whether increasing anthropogenic environmental EMF can cause
biological effects in wildlife that may become more urgent with 5G
technologies, in addition to concerns over potentially more lenient
allowances being considered by major standards-setting committees at FCC
and ICNIRP (examined in Part 3). There are unique signaling
characteristics inherent to 5G transmission as currently designed of
particular concern to non-human species. Background levels continue to
rise but no one is studying cumulative effects to nonhuman species.
379 references.
--
Effects of non-ionizing electromagnetic fields on flora and fauna, Part 2 impacts:
how species interact with natural and man-made EMF
B Blake Levitt, Henry C Lai, Albert M Manville.
Effects of non-ionizing electromagnetic fields on flora and fauna,
Part 2 impacts: how species interact with natural and man-made EMF.
Rev Environ Health. 2021 Jul 8. doi:10.1515/reveh-2021-0050.
Abstract
Ambient levels of nonionizing electromagnetic fields (EMF) have risen sharply in the last five decades to become a ubiquitous, continuous, biologically active environmental pollutant, even in rural and remote areas. Many species of flora and fauna, because of unique physiologies and habitats, are sensitive to exogenous EMF in ways that surpass human reactivity. This can lead to complex endogenous reactions that are highly variable, largely unseen, and a possible contributing factor in species extinctions, sometimes localized. Non-human magnetoreception mechanisms are explored. Numerous studies across all frequencies and taxa indicate that current low-level anthropogenic EMF can have myriad adverse and synergistic effects, including on orientation and migration, food finding, reproduction, mating, nest and den building, territorial maintenance and defense, and on vitality, longevity and survivorship itself. Effects have been observed in mammals such as bats, cervids, cetaceans, and pinnipeds among others, and on birds, insects, amphibians, reptiles, microbes and many species of flora. Cyto- and geno-toxic effects have long been observed in laboratory research on animal models that can be extrapolated to wildlife. Unusual multi-system mechanisms can come into play with non-human species - including in aquatic environments - that rely on the Earth's natural geomagnetic fields for critical life-sustaining information. Part 2 of this 3-part series includes four online supplement tables of effects seen in animals from both ELF and RFR at vanishingly low intensities. Taken as a whole, this indicates enough information to raise concerns about ambient exposures to nonionizing radiation at ecosystem levels. Wildlife loss is often unseen and undocumented until tipping points are reached. It is time to recognize ambient EMF as a novel form of pollution and develop rules at regulatory agencies that designate air as 'habitat' so EMF can be regulated like other pollutants. Long-term chronic low-level EMF exposure standards, which do not now exist, should be set accordingly for wildlife, and environmental laws should be strictly enforced - a subject explored in Part 3.
Conclusion
Effects
from both natural and man-made EMF over a wide range of frequencies,
intensities, wave forms, and signaling characteristics have been
observed in all species of animals and plants investigated. The database
is now voluminous with in vitro, in vivo, and field studies
from which to extrapolate. The majority of studies have found biological
effects at both high and low-intensity man-made exposures, many with
implications for wildlife health and viability. It is clear that ambient
environmental levels are biologically active in all non-human species
which can have unique physiological mechanisms that require natural
geomagnetic information for their life’s most important activities.
Sensitive magnetoreception allows living organisms, including plants, to
detect small variations in environmental EMF and react immediately as
well as over the long term, but it can also make some organisms
exquisitely vulnerable to man-made fields. Anthropogenic EMF may be
contributing more than we currently realize to species’ diminishment and
extinction. Exposures continue to escalate without understanding EMF as
a potential causative and/or co-factorial agent. It is time to
recognize ambient EMF as a potential novel stressor to other species,
design technology to reduce exposures to as low as reasonably
achievable, keep systems wired as much as possible to reduce ambient
RFR, and create laws accordingly — a subject explored more thoroughly in
Part 3.
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Effects of non-ionizing electromagnetic fields on flora
and fauna, Part 3.
Exposure standards, public policy, laws, and future
directions
B. Blake Levitt, Henry C. Lai, Albert M. Manville. Effects of non-ionizing electromagnetic fields on flora and fauna, Part 3. Exposure standards, public policy, laws, and future directions. Rev Environ Health. 2021 Sep 27. doi:
10.1515/reveh-2021-0083.
Abstract
Due to the continuous rising ambient levels of nonionizing electromagnetic fields (EMFs) used in modern societies—primarily from wireless technologies—that have now become a ubiquitous biologically active environmental pollutant, a new vision on how to regulate such exposures for non-human species at the ecosystem level is needed. Government standards adopted for human exposures are examined for applicability to wildlife. Existing environmental laws, such as the National Environmental Policy Act and the Migratory Bird Treaty Act in the U.S. and others used in Canada and throughout Europe, should be strengthened and enforced. New laws should be written to accommodate the ever-increasing EMF exposures. Radiofrequency radiation exposure standards that have been adopted by worldwide agencies and governments warrant more stringent controls given the new and unusual signaling characteristics used in 5G technology. No such standards take wildlife into consideration. Many species of flora and fauna, because of distinctive physiologies, have been found sensitive to exogenous EMF in ways that surpass human reactivity. Such exposures may now be capable of affecting endogenous bioelectric states in some species. Numerous studies across all frequencies and taxa indicate that low-level EMF exposures have numerous adverse effects, including on orientation, migration, food finding, reproduction, mating, nest and den building, territorial maintenance, defense, vitality, longevity, and survivorship. Cyto- and geno-toxic effects have long been observed. It is time to recognize ambient EMF as a novel form of pollution and develop rules at regulatory agencies that designate air as ‘habitat’ so EMF can be regulated like other pollutants. Wildlife loss is often unseen and undocumented until tipping points are reached. A robust dialog regarding technology’s high-impact role in the nascent field of electroecology needs to commence. Long-term chronic low-level EMF exposure standards should be set accordingly for wildlife, including, but not limited to, the redesign of wireless devices, as well as infrastructure, in order to reduce the rising ambient levels (explored in Part 1). Possible environmental approaches are discussed. This is Part 3 of a three-part series.
Excerpts
Introduction
This is Part 3 and concludes a three-part series on electromagnetic field (EMF) effects to wildlife.
Part 1
focused on measurements of rising background levels in urban, suburban,
rural, and deep forested areas as well as from satellites. Discussed
were different physics models used to determine safety and their
appropriateness to current exposures. The unusual signaling
characteristics and unique potential biological effects from 5G were
explored. The online edition of Part 1 contains a Supplement Table of
measured global ambient levels.
Part 2 is an
in-depth review of species extinctions, exceptional non-human
magnetoreception capabilities, and other species’ known reactions to
anthropogenic EMF exposures as studied in laboratories and in the field.
All animal kingdoms are included and clear vulnerabilities are seen.
Part 2 contains four Supplement Tables of extensive low-level studies
across all taxa, including ELF/RFR genotoxic effects.
Part 3
discusses current exposure standards, existing federal, and
international laws that should be enforced but often are not, and
concludes with a detailed discussion of aeroecology—the concept of
defining air as habitat that would serve to protect many, though not
all, vulnerable species today.
Some solutions
Existing
environmental laws in the U.S., Canada, and throughout Europe should be
enforced. For example, in the U.S., NEPA and its EISs should be
required each time a new broadly polluting EMF technology like 5G is
introduced, not as the current policy is being interpreted through
“CatEx” or simple dismissal. EISs should be required for all new
technologies that create pervasive ambient EMF such as ‘smart’
grid/metering, Distributed Antenna Systems (DAS), small cell networks,
and the 5G “Internet of Things.” Where wildlife species are affected,
systems and networks that currently meet radiation levels for CatEx (and
are therefore exempt from review) should be required to
develop/implement NEPA and EIS reviews for cumulative exposures to
wildlife from multi-transmission sources.
Efforts should begin to
develop acceptable exposure and emissions standards for wildlife, which
today do not exist. Setting actual exposure standards for wildlife will
be an enormous challenge, and for some species there may be no safe
thresholds, especially with 5G and MMW. We may simply need to back away
from many wireless technologies altogether, especially the densification
of infrastructure, and refocus on developing better dedicated wired
systems in urban, suburban and rural areas. Environmentally sensitive
wilderness areas should be considered off limits for wireless
infrastructure. Once air is seen as ‘habitat,’ there may come a time
when a cell phone call voluntarily not made will be understood
as removing something detrimental from air’s waste-stream, the way we
now see plastic bags regarding terrestrial/aquatic pollution.
There
are some reasonably simple things that can be done in the ELF ranges
that would benefit insect, bird, and many wild mammal and ruminant
species. For example, high-tension electric utility corridors can be
built or changed to cancel magnetic fields with different wiring
configurations. This is already widely done in the industry for other
reasons but it also coincidentally eliminates at the source at least the
magnetic field component for wildlife. There are other approaches too
but further discussion is beyond the scope of this paper.
Research
into the long-term, low-level ambient exposures to humans and wildlife
is imperative given the picture that is emerging. There is a likelihood
that low-level ambient EMF is a factor, or co-factor, in some of the
adverse environmental effects we witness today—many previously discussed
in this series of papers. There is currently no research in any
industrialized country that looks to the broader implications to all
flora and fauna from these rising background levels, even as effects to
individual species are observed. This is an important, emerging
environmental issue that must be addressed.
Conclusions
In
this broad three-part review, we sought to clarify if rising ambient
levels of EMF were within the range of effects observed in in vitro, in vivo,
and field studies in all animal phyla thus far investigated. We further
discussed mechanisms pertinent to different animal physiology,
behavior, and unique environments. The intention was to determine if
current levels have the ability to impact wildlife species according to
current studies. The amount of papers that find effects at today’s EMF
levels to myriad species is robust. Some unusual patterns did emerge,
including broadly in flora that react beneficially to static EMF but
adversely to AC-ELF and especially to RFR.
There is a very large
database supporting the hypothesis that effects occur in unpredictable
ways in numerous species in all representative taxa from modern ambient
exposures. Associations are strong enough to warrant caution. New
enlightened public policies are needed, as well as existing laws
enforced, reflecting a broader understanding of non-human species’
interactions with environmental EMF. Emerging areas, such as
aeroecology, help define airspace as habitat and bring better awareness
of challenges faced by aerial species—including animals and plants. But
we are in the nascent stages of understanding the full complexity and
detailed components of electroecology—the larger category of how
technology affects all biology and ecosystems.
Historically,
control over the realm of nonionizing radiation has been the purview of
the physics and engineering communities. It is time that the more
appropriate branches of biological science, specializing in living
systems, stepped up to fill in larger perspectives and more accurate
knowledge. We need to task our technology sector engineers to create
safer products and networks with an emphasis on wired systems, and to
keep all EMF exposures as low as reasonably achievable.
Corresponding author: B. Blake Levitt, P.O. Box 2014, New Preston, CT 06777, USA, E-mail: blakelevit@cs.com
Keywords: aeroecology; electroecology; International Council on Non-ionizing Radiation Protection (ICNIRP); Migratory Bird Treaty Act (MBTA); National Environmental Policy Act (NEPA); non-ionizing electromagnetic fields (EMFs); radiofrequency radiation (RFR); rising ambient levels; U.S. Federal Communications Commission (FCC)
162 references.
==
Electromagnetic radiation as an emerging driver factor for the decline of insects
Alfonso Balmori. Electromagnetic radiation as an emerging driver factor for the decline of insects. Sci Total Environ. Available online 28 January 2021, 144913. https://doi.org/10.1016/j.scitotenv.2020.
Highlights
• Biodiversity of insects is threatened worldwide
• This reductions is mainly attributed to agricultural practice and pesticide use
• There is sufficient evidence on the damage caused by electromagnetic radiation
• Electromagnetic radiation may be a complementary driver in this decline
• The precautionary principle should be applied before any new deployment (e.g. 5G)
Abstract
The biodiversity of insects is threatened worldwide. Numerous studies have reported the serious decline in insects that has occurred in recent decades. The same is happening with the important group of pollinators, with an essential utility for pollination of crops. Loss of insect diversity and abundance is expected to provoke cascading effects on food webs and ecosystem services. Many authors point out that reductions in insect abundance must be attributed mainly to agricultural practices and pesticide use. On the other hand, evidence for the effects of non-thermal microwave radiation on insects has been known for at least 50 years. The review carried out in this study shows that electromagnetic radiation should be considered seriously as a complementary driver for the dramatic decline in insects, acting in synergy with agricultural intensification, pesticides, invasive species and climate change. The extent that anthropogenic electromagnetic radiation represents a significant threat to insect pollinators is unresolved and plausible. For these reasons, and taking into account the benefits they provide to nature and humankind, the precautionary principle should be applied before any new deployment (such 5G) is considered.
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Effects of Non-Ionizing Electromagnetic Pollution on Invertebrates, Including Pollinators Such as Honey Bees: What We Know, What We Don’t Know, and What We Need to Know
Friesen M, Havas M. 2020. Effects of Non-Ionizing Electromagnetic Pollution on Invertebrates, Including Pollinators Such as Honey Bees: What We Know, What We Don’t Know, and What We Need to Know.” Pages 127-138 In Working Landscapes. Proceedings of the 12th Prairie Conservation and Endangered Species Conference, February 2019, Winnipeg, Manitoba. Edited by D. Danyluk. Critical Wildlife Habitat Program, Winnipeg, Manitoba. http://pcesc.ca/media/45404/final-2019-pcesc-proceedings.pdf.
Abstract
Invertebrates, including pollinators such as honey bees, can be adversely affected by non-ionizing electromagnetic radiation (EMR). Sources contributing to common environmental EMR exposures include antennae (cell phone, broadcast, and radar), communications satellites, and power lines. Adverse biochemical changes and disorientation have been reported for honey bees and other invertebrates. Field studies have reported changes in abundance and composition of “key pollinator groups” (wild bees, hoverflies, bee flies, beetles, and wasps) that have been attributed to emissions from telecommunications towers. We take a close look at the biological effects on invertebrates of EMR reported in the scientific literature and a general look at evidence from studies on plants, birds, humans, and other animals (domestic, laboratory, wild). We discuss possible implications of excessive electromagnetic pollution on ecosystems and identify knowledge gaps and what we need to know before more electromagnetic pollution is added to the environment, especially in the form of 5G.
Introduction
Invertebrates (animals without backbones) are major components of most ecosystems. Insects are key to the integrity of many ecosystems in many roles including as pollinators. Honey bees play a role in pollination of domestic as well as wild plants and are often used as bio-indicator species and as a “model” to examine environmental problems. The global decline of pollinators is of grave concern and efforts are being made to identify the reasons (Potts et al. 2010; Sánchez-Bayo and Wyckhuys 2019). One factor not widely considered is the possible role of anthropogenic electromagnetic radiation (EMR).
Electromagnetic fields (EMFs) are invisible electric and magnetic fields of force. All living organisms have evolved in Earth’s natural EMFs and depend on them to live. Natural sources include Earth’s static magnetic field, and static electricity, including differences in charges among clouds and the earth that can lead to lightning. Electromagnetic radiation (EMR) originates when fields change.
Anthropogenic (human-made, artificial) EMR sources are sometimes referred to as electromagnetic pollution or electrosmog. The main frequency ranges of interest in this article are: 1) extremely low frequencies (ELF) of 50/60 to 90 Hz that emanate from sources such as power lines and building wiring; and 2) radiofrequency radiation (RFR) of 700 MHz to 6 GHz, commonly used for devices such as cell phones, radio and television, and their supporting infrastructure, e.g., cell towers, antennae on buildings, and orbiting communications satellites. Also discussed are frequencies currently being developed and deployed above 6 GHz for 5G (5th Generation) for faster and more pervasive connectivity, including the “Internet of Things”.
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Risk to pollinators from anthropogenic electro-magnetic radiation: Evidence and knowledge gaps
Vanbergen AJ, Potts SG, Vian A, Malkemper EP, Young J, Tscheulin T.
Risk to pollinators from anthropogenic electro-magnetic radiation (EMR): Evidence and knowledge gaps.
Sci Total Environ. 2019 Aug 7;695:133833. doi: 10.1016/j.scitotenv.2019.133833.
Highlights
• Anthropogenic electromagnetic radiation (light, radiofrequency) is perceived to threaten pollinators and biodiversity.
• Potential risks are artificial light at night (ALAN) and anthropogenic radiofrequency electromagnetic radiation (AREMR).
• We assessed the quantity and quality of evidence, and the level of consensus, to distil key messages for science and policy.
• ALAN can alter pollinator communities and functions, although this remains to be well established.
• Evidence of AREMR impacts is inconclusive due to a lack of high quality, field-realistic studies.
• Whether pollinators and pollination face a threat from the spread of ALAN or AREMR remains a major knowledge gap.
Abstract
Worldwide urbanisation and use of mobile and wireless technologies (5G, Internet of Things) is leading to the proliferation of anthropogenic electromagnetic radiation (EMR) and campaigning voices continue to call for the risk to human health and wildlife to be recognised. Pollinators provide many benefits to nature and humankind, but face multiple anthropogenic threats. Here, we assess whether artificial light at night (ALAN) and anthropogenic radiofrequency electromagnetic radiation (AREMR), such as used in wireless technologies (4G, 5G) or emitted from power lines, represent an additional and growing threat to pollinators. A lack of high quality scientific studies means that knowledge of the risk to pollinators from anthropogenic EMR is either inconclusive, unresolved, or only partly established. A handful of studies provide evidence that ALAN can alter pollinator communities, pollination and fruit set. Laboratory experiments provide some, albeit variable, evidence that the honey bee Apis mellifera and other invertebrates can detect EMR, potentially using it for orientation or navigation, but they do not provide evidence that AREMR affects insect behaviour in ecosystems. Scientifically robust evidence of AREMR impacts on abundance or diversity of pollinators (or other invertebrates) are limited to a single study reporting positive and negative effects depending on the pollinator group and geographical location. Therefore, whether anthropogenic EMR (ALAN or AREMR) poses a significant threat to insect pollinators and the benefits they provide to ecosystems and humanity remains to be established.
Oct 31, 2018
EKLIPSE Project: Electromagnetic fields threaten wildlife
Implications for 5G deployment
A new report found that
electromagnetic fields emitted by power lines, Wi-Fi, broadcast and cell towers
pose a “credible” threat to wildlife, and that 5G (fifth generation cellular
technology) could cause greater harm.
The analysis of 97 peer-reviewed studies
by the EKLIPSE project concluded
that electromagnetic radiation (EMR) is a potential risk to insect and bird
orientation and to plant health.
The report concluded that:
- EMR represents a potential risk to the orientation or movement of
invertebrates and may affect insect behavior and reproduction;
- bird orientation can be disrupted by weak magnetic fields
in the radiofrequency range, and the same may be true for other vertebrates
including mammals; and
- EMR exposure may affect plant metabolism due to production of reactive oxygen species often resulting in
reduced plant growth.
- Moreover, there is “an urgent need to strengthen the
scientific basis of the knowledge on EMR and their potential impacts on
wildlife.”
The review was conducted by a
multidisciplinary, expert steering group composed of four biologists/ecologists
who specialized in different taxonomic groups, and two physicists who study electromagnetic
fields. This technical report represents the first step in an analysis of currently
available knowledge and future research needs.
The reviewers pointed out the need for more high quality research. They rated the quality of 82 studies--56 had good
to excellent biologic or ecologic quality, and 39 had good to excellent
technical quality.
EKLIPSE (Establishing a European Knowledge and Learning Mechanism to Improve the Policy-Science-Society Interface on Biodiversity and Ecosystem Services) is funded by the European Union to answer
requests from policy makers and other societal actors on biodiversity-related
issues.
References
Malkemper EP, Tscheulin T,
VanBergen AJ, Vian A, Balian E, Goudeseune L (2018). The impacts of artificial
Electromagnetic Radiation on wildlife (flora and fauna). Current knowledge
overview: a background document to the web conference. A report of the EKLIPSE
project. http://bit.ly/Eklipseoverview
Goudeseune L, Balian E, Ventocilla
J (2018). The impacts of artificial Electromagnetic Radiation on wildlife
(flora and fauna). Report of the web conference. A report of the EKLIPSE
project. http://bit.ly/EKLIPSEconfreport
Also see:
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The EKLIPSE review was conducted at the request of Buglife, the only European organization devoted to the conservation of invertebrates. Invertebrates are vitally important to humans and other life forms which could not survive without them; yet, thousands of species are declining, and many are heading towards extinction.
According to a news story in The Telegraph:
“… the charity Buglife warned that despite good evidence of the harms there was little research ongoing to assess the impact, or apply pollution limits.
The charity said ‘serious impacts on the environment could not be ruled out’ and called for 5G transmitters to be placed away from street lights, which attract insects, or areas where they could harm wildlife.
Matt Shardlow, CEO of Buglife said: ‘We apply limits to all types of pollution to protect the habitability of our environment, but as yet, even in Europe, the safe limits of electromagnetic radiation have not been determined, let alone applied.
There is a credible risk that 5G could impact significantly on wildlife, and that placing transmitters on LED street lamps, which attract nocturnal insects such as moths increases exposure and thereby risk.
Therefore we call for all 5G pilots to include detailed studies of their influence and impacts on wildlife, and for the results of those studies to be made public.’
Buglife called for 5G transmitters to be moved away from street lights where insects are drawn.
As of March, 237 scientists have signed an appeal to the United Nations asking them to take the risks posed by electromagnetic radiation more seriously.”
Additional Resources (Updated August 14, 2021)
Aikaterina L, Stefi AL, Vassilacopoulou D, Margaritis LH, Christodoulakis NS. Oxidative
stress and an animal neurotransmitter synthesizing enzyme in the leaves of wild
growing myrtle after exposure to GSM radiation. Flora. 243:67-76. June 2018. https://doi.org/10.1016/j.flora.2018.04.006
Granger J,
Walkowicz L, Fitak R, Johnsen S. Gray whales strand more often on days with
increased levels of atmospheric radio-frequency noise. Curr Biol. 2020 Feb
24;30(4):R155-R156. https://www.ncbi.nlm.nih.gov/pubmed/32097638
Lupi D, Mesiano MP, Adani A, Benocci R, Giacchini R, Parenti P, Zambon G, Lavazza A, Boniotti MB, Bassi S, Colombo M, Tremolada P.
2021. Combined Effects of Pesticides and Electromagnetic-Fields on
Honeybees: Multi-Stress Exposure
. Insects. 12(8):716. doi: 10.3390/insects12080716.
https://www.mdpi.com/2075-4450/12/8/716
Nyqvist D, Durif C, Johnsen MG, De Jong K, Forland TN, Sivle LD.
Electric and magnetic senses in marine animals, and potential behavioral effects of electromagnetic surveys.
Mar Environ Res. 2020 Mar;155:104888. https://www.ncbi.nlm.nih.gov/pubmed/32072990
