How the Manuscript Review Process Should Work

The review process provides a level of quality control that insures that published papers are correct and of interest to the scientific community.  Since reviewers are themselves scientists with busy schedules, and being a reviewer provides no compensation aside from the satisfaction of being a good citizen, editors often find it difficult to get the best people for the job.  This has led to an increase in desk rejects by the editor, which avoids wasting reviewers' time on manuscripts that will most likely not be accepted.  The review system is frustrating to all parties involved.

I've been involved on all sides.  As an editor, I took lots of grief from angry authors.  In one case, I got a phone call from an irate author whose paper I had rejected.  He lectured me that as an editor of a prestigious journal decades prior, he would use at least one of the reviewers that the author had recommended.  Why had I not done so?  Because the review process is anonymous, I could not tell him that I used two of the three physicists that he had suggested, and they both recommended that the paper be rejected.  As a compromise, I selected his third choice of reviewer, along with yet another one.  Again, they all rejected the paper.  I could have avoided the next phone call and the indigestion that followed if I would have disclosed the fact that I had chosen at least one of his recommendations.  But I could not.

On another occasion, one of my colleges refused to act as a reviewer on a paper for which he was perfectly suitable.  That same colleague had an issue with one of his papers (not to my journal) where he needed my help, so I used it as leverage to get him to act as a reviewer for me.  There are all sorts of behind-the-scenes dynamics that are not always obvious to authors or reviewers.  The bottom line is that the process is far from perfect, which brings disdain from authors who are unhappy with the results.

I am writing this post to describe an example of a rainbow amidst the storm.

The American Journal of Physics is one of the coolest Physics publications on earth, so I read every monthly issue cover-to-cover.  There are always a few articles in each issue that surprise and delight.  They often point out subtleties in topics that you might think mundane, and bring insights that have been missed by the research community.

Being an author of a couple papers in AJP over the last two years, I have found the review process to be excellent.  The reviewers are knowledgeable and seem to spend lots of time trying to understand the work.  The exchanges are a real learning experience, and all parties are flexible -- admitting mistakes and savoring the process.  Here I describe an example of my experience with a paper that will be appearing in December (here is a link to the preprint).

The editor notified me that my paper had mixed reviews:

"Attached you will find copies of the reviewers' reports on your manuscript "Length as a Paradigm for Understanding the Classical Limit." Though the reports differ in recommendation, it is the content of the reports that is more important than the recommendation per se, and all three reviewers seem to be focusing on the same (or almost the same) issue: The justifiability of your model for what you call length. It will be necessary for you to address this issue in a revision. There are additional detailed corrections and suggestions that should also be carefully in a revision.

If you wish to revise your manuscript along the lines indicated, we would continue its editorial consideration once it has been resubmitted using the procedure indicated on the AJP website. If you do resubmit, please indicate in a single cover letter how you have responded to the various comments of the reviewers. DO NOT send separate replies for each reviewer.

Thank you for your interest in the American Journal of Physics."

The first thing that caught my eye was the fact that this was not the usual form letter used by most journals.  The editor had carefully read the reviews and noticed some common criticisms.  I eagerly dove into my revisions, finding that the reviewers' questions and confusion were the result of deficits in my paper.  I knew what I was trying to say, but my obtuse presentation of the material was only made obvious by their comments.  Most importantly, responding to the reviewers forced me to think more clearly about the physics.  As a result, I gained insights into my own work when making the revisions, increasing substantially the quality of presentation.

Exchange With Reviewers 

Particle in a Box

I will focus here on the common complaint made by all the reviewers, which centered on my use of the particle-in-a-box model.  Here are their complaints:

REVIEWER #1

My only concern is the basic assumption used to model the ``quantum'' systems.  The author is assuming the quantum system is inside a box with hard walls (it uses the infinite well model to derive the wave-function of one electron, and then generalizes it to non-interacting particles).  While this is a simple an intuitive model to work with, it is not clear that the results would carry on with more realistic potentials that might have different boundary conditions. 

REVIEWER #2

In the work, the focus lies on the electrons of a material and the nuclei are taken as a scaffolding for them, which is the usual approach for solid state physics. Yet, the wavefunction for the entire ruler will truly include the atoms as well. I would expect that the length of the ruler as calculated through this procedure will change when including these additional fermions, while I reality the length of the rod will remain the same. If this is so, it would jeopardize the numerical results in this work (although not its method)

REVIEWER #3

It is also strange the definition of the length of an object as the sum of the densities of the electrons confined in that potential, like the example of the particle in the box. The length of a real material should depend on the properties of the nuclei as well as of the electrons.

My Response:

Since all the reviewers brought up a similar point, I responded to them as a group.  Here is the verbatim response:

We interact with materials either by looking at them with our eyes (light scattering from electrons) or touching them (repulsion between electrons in the material and within us).  I believe that we all would agree that what we ``see" are the electrons, though their density does indeed depend on the presence of the nucleons.  So two materials with the same electron density but different nuclear positions would appear the same.  The mass, of course, is dominated by the nucleons, but we are viewing/touching the electrons when determining the length.  The length would be different if we did scattering experiments that are tuned to only probe the nucleons, but on the scale of human senses, we see only the electrons.  In either case, the lengths determined in these two ways would be similar for multi-atom quantum systems.

The positions of the nucleons are well represented by the Born-Oppenheimer Approximation, where the nuclear equilibrium positions are determined by the configuration with the lowest total energy.  Some of the electrons are involved in stabilizing the system -- which can be viewed as chemical bonds -- and in materials such as metals, the rest of the electrons are delocalized over the bulk material.  In the absence of defects, bulk metals appear smooth so each conduction electron moves approximately freely within the metal and encounters a large barrier at the edges.

This picture roughly holds for all materials and uniform electron densities are found is a variety of systems with delocalized electrons modeled by particles in a box.  These include small molecules such as the polyenes, as modeled by Kuhn in the 1940s, to metals as described in solid state textbooks, to nanoparticles that straddle the classical/quantum divide as recently reported by Scholl.

I would thus argue that the particle in a box is a good model that roughly holds well for many systems.  Much more sophistication is required to deal with the nuances.  I therefore believe that using the particle in a box model contains the correct physics that is assessable to a student.   Taking into account the reviewers' comments to explain this to the reader, I have added a third paragraph to Section III.A that reads:
 

"Models of materials with non-interacting electrons in a box roughly predict the electronic properties of small molecules such as the molecular class of polyenes,\cite{kuhn48.01} describe metals as found in solid state textbooks\cite{OpenStax20.01} and accurately portray the quantum to classical transition of nano-particles.\cite{schol12.01}  This shows that the effect of the nucleons on the electrons can be roughly taken into account with a box that confines the elections within.  We will thus model typical materials with uniform electron density as non-interacting electrons in a box.  The reader should keep in mind that this is a first step in modelling materials in which electrons are delocalized.  Later we treat materials made of such units that are ``pressed" together.  Then, the electrons are localized within domains rather than over the full material.  For simplicity, we will treat only one-dimensional systems.  Other potentials can be treated in the same way, but this exercise does not result in significant-enough insights about length itself  to make it worthwhile to treat in this paper."

The reviewers we satisfied with my response.  Here are excerpts from their second set of comments:

REVIEWER #2 - Second Response

I'm particularly satisfied with the argument to not include the
nucleons in the the total wavefunction. I've learned a new insight
here, using the Born-Oppenheimer approximation. Also, I think the
added paragraphs to section III add to the quality of the story.

REVIEWER #3 - Second Response

The author presented an improved manuscript that discusses the
difficult concept of quantum length. The language in the response
and the changes in the text greatly improved the manuscript.

Definition of Length

REVIEWER #3

This reviewer thought that my paper was wrong and should be rejected on the basis that I defined the length in a certain way that was arbitrary.  In the reviewer's own words:

It is my opinion that the manuscript is not technically correct as it starts with the definition of length of rod in terms of its uncertainty in the position.

 

The reviewer continues with technical details.  This comment led me to see that I was unclear in my presentation.  I responded with:

Your major criticism of this manuscript is with the ``definition of the length" and your argument against this definition is based on the fact that the coefficient $\sqrt{12}$ would change if the material were not uniform.  The original version treated only the uniform classical rod as the length element.  In the revised manuscript, an appendix describes how a non-uniform classical rod is treated, and is referred to in the main text.  Your argument is analogous to stating that the Pythagorean theorem can't be right because the expression would depend on the shape of the curve along the hypotenuse.  As with Pythagoras, where the length of the curve is obtained by dividing it into infinitesimal straight sections, so too the classical length is computed as the sum over uniform segments.  In retrospect, the original manuscript did a horrible job by neglecting this description.  I believe that using an appendix eliminates confusion yet maintains the flow of the narrative.

I have also added a couple paragraphs, as described above in the general section, which argues for the ansatz for the quantum length, a regime where it is no longer possible to subdivide a material without changing its properties.  I hope that these two major revisions remove confusion and makes you comfortable with the length expression that results from applying translational invariance and classical correspondence.

 

In response to my revisions, the reviewer adds: 

 

The added appendix lets the reader know that there are other
definitions that would converge to the proper classical limit. I
would like to see incorporated in the beginning of manuscript the
statement that the author made about how theories are developed.
This would be very helpful for the readership to explain how one
should approach making comparisons between new theories and their
classical limits. Incorporating these ideas on someone’s teaching
can help students navigate phenomena they are seeing for the first
time while relating them to things they are familiar with. These
ideas are incorporated in the Lessons Learned section, however,
helping the reader have this framework at the beginning of the
manuscript can guide the reader on understanding the assumptions
made, the development of the concepts, and finally understanding
the conclusions in the end.


It is my opinion that the manuscript might be published in the
present form, but it can still be improved by incorporating the
four points on theory developed in the introduction:


1. Setting the physical constraints. Here the length is required to
be translationally invariant and to give the correct classical
result.

2. Choosing the simplest ansatz that meets the constraints. The
uncertainty happens to meet the translational invariance criteria
but the length is NOT ad hoc defined as the uncertainty.

3. Demanding that the quantum theory in the classical limit gives
the classical result. Here, the quantum length and classical length
converge in the many-particle limit and for one particle in the
limit of it occupying the highest-energy state.

4. Investigating the Consequences. Here we apply the ansatz to
rulers and measurement.

In addition to being satisfied with my revisions, my comments to the reviewer led them to conclude that the response I had directed at the reviewer in my rebuttal was so useful that it should be added to the paper.  This was a great idea, and an example of what I was thinking when I was writing the paper, but something that I had not verbalized. This gave me the opportunity to carefully craft  what I think is an important takeaway message of my paper.

Conclusion

There are many other useful exchanges with the reviewers that would take too much time to summarize here and would add too much length to this post.  So instead, I have uploaded all the files with the reviewers' comments and my responses, to which I provide links below.  The end result is that I got great advice, which led to a much better paper not only in the presentation style, but in substantive additions to the content.  More importantly, I feel a deep kinship with these reviewers, who bared their minds to me in a frank dialog that gave me a more nuanced understanding of the topic.  I am indebted to these individuals who sacrificed their valuable time without compensation, other than to savor the satisfaction of learning about and understanding the subtleties of our world.

• Link to the reviewers' comments, my reply and their final comments.  Click here for the folder.
• Here is a link to the final version of the paper, which is scheduled to appear in December.

Comparing Apples to Apples in the Big Apple

 

The graphs show the numbers of deaths per 100,000 person-months at the peaks of the 1918 H1N1 Pandemic (top) and the 2020 COVID-19 Pandemic (bottom).  Both graphs are for New York City.  The 1918 Pandemic spike showed an increase of 180% in deaths and the 2020 Pandemic a 315% increase.  All values are for the peak months of each pandemic:  The 61-day period from October through November for the years 1914 to 1918 and the 61-day period from March 11 through April 11 for the years 2017 to 2020.  Source: Journal of the American Medical Association (tinyurl.com/y2p4hl29).

I was relieved I had cancer

Synopsis

I was diagnosed with prostate cancer the first week of 2020 and my prostate was removed on April 21st.  I shared the news only with my immediate family and a couple of compatriots who coincidentally had had the same diagnosis.

That time between my diagnosis and surgery was filled with many memorable moments that made me forget about those rogue cells dividing within me.  It was not an intentional effort to look for diversions, I was just busy doing the things that I enjoy.   We visited our grandchildren for fun outings and hung out with friends;  A couple of my PhD students defended their PhDs; I did some of my own work in the lab with my own hands, interacted with my students on research projects, and developed new ideas for future research.  In addition, I wrote several papers and spent almost one day per week working on my cabin in the wilderness.  I enjoyed playing floor hockey and ice hockey -- ending the season as the highest-scoring player in the league.  I even squeezed in a ski trip with friends.

So, in heart and mind, I did not feel like someone with cancer.  I did not give myself that label.  The impending procedure was in the future akin to an upcoming tooth extraction – an unpleasant event, but because of the good prognosis, a relatively short period of recuperation and a wonderful life to return to afterwards.  I was not in denial; I just did not want to spend time discussing it as you might not care to talk about your upcoming dental visit or physical.  That would have been a distraction from all the fun I was having, especially in my work, pondering the beauty of physics.

I was tense over the wait, not at the dread of the surgery but by the possibility that it could be postponed.  Much can happen in four months, as it did.  COVID raged and accelerated, postponing elective surgeries.  I was lucky enough to have my surgery deemed a necessity due to the life-threatening nature of cancer.  What if my surgeon got ill?  What if he broke his wrist during his spring vacation?   I was vigilant in taking precautions from getting sick, not so much out of concern of getting COVID, but avoiding symptoms that would postpone my prostate’s date with a 6-clawed robot.

The surgical procedure and recovery put my life on pause for a few hours.  I was carted off to the operating theater a little before noon by the anesthesiologist, with whom I discussed the tastiness of Philly cheesesteaks.   I was extolling the virtues of fried onions bathed in Cheese Whiz as he placed the plastic mask over my nose and mouth.   An instant later I found myself in post-op at around 3:00pm, groggily lazing about with several other patients, some of them groaning.

On my way to surgery

The kind nurses gave me lots of saltine crackers and soda for the nausea, which soon subsided.  The catheter was a great convenience that allowed me to drink heavily without needing to get up to use the bathroom.  I fired up my iPad at 5:00pm (at about the time the morphine finally wore off) to answer work emails and to text family and friends (no visitors were allowed because of COVID), then walked almost a quarter of a mile around the hallways of our hospital wing by 7:00pm.  My roommate was a heavy snorer, keeping me awake most of the night so at 5:00am the day after my surgery, I took a three-quarter mile walk in the dark hallways, pushing my IV pole in front of me – the squeaky wheels grabbing the attention of nurses at their stations as I walked by.  By the third circuit, they smiled in my direction as I passed by.  I was discharged shortly after noon and was working at my computer at home by 3:00pm.

Getting in the car after being discharged

Most of you never noticed.  The day after I was discharged, I had a couple Zoom meetings.   The first several days after surgery we ran into several of you while taking a walk around Pullman.  A week later, just after the catheter was removed, some friends visited to drink beer and snack on our back deck to provide social distancing.

Just had my final test results a week ago, and things are looking great.  One needs to be clean for 5 years to be considered cured, but I will not be holding my breath.  Rather, I have already returned to the pleasures of life and my work without any thought as to what lies ahead not because I am actively fighting negative thoughts, but because the joys of thinking about physics and doing research, spending time with family and friends, and working on our cabin in the wilderness keep me occupied.

The Details

``You have cancer.”

I was relieved.

Early 2018, my PSA results alerted me to the possibility that I had prostate cancer.  My MRI showed a dark spot that the radiologist determined was likely cancer, a result that I got on my 60th birthday.  That meant a biopsy was needed, which turned out to be an intensely unpleasant experience because the local anesthetic did not take.  Each of the 12 spring-loaded needles bit through my prostate, gouging out a long thin cylinder of prostate tissue.   On the bright side, a week later I was told, “No cancer!”

I played floor hockey the night after my morning biopsy, ignoring the blood that was accumulating in places that I am too polite to describe.  I was more than annoyed at the graduate student who taunted me for not being as fast as usual – you know who you are.

About thirty percent of the time, all twelve cores of a standard biopsy miss the cancer, giving a false negative.  To avoid the trauma of a second biopsy, I was administered a genetic test, which starts with a vigorous prostate massage on a full bladder (mine was on Valentine’s day) to induce the appropriate secretions that are collected in a urine sample, which is a huge relief to provide.  The result: Low Risk!  Chance of cancer <2 again.="" br="" i="" nbsp="" relieved="" was="">
But my PSA continued to increase so another MRI was ordered, which showed the dark spot had noticeably grown over 16 months.  To make a long story short, an improbable sequence of events got me an appointment with a highly competent urologist in Spokane who specializes in oncology.  He looked at the MRI and immediately concluded that it was cancer, that it was localized and that it should be easy to treat.  “Of course the biopsy was negative,” he said, “because the cancer is in a place that normal biopsy needles don’t reach.”  He scheduled a 29-core biopsy to get plenty of samples and he would use the transperineal procedure, which would reach the suspicious region, but was invasive enough to require general anesthesia – fine by me!

I had the procedure early in the morning of December 31st, 2019, celebrated the new year with friends – who were unaware of the blood once again pooling in many places of my body.  We then visited our son and his wife and their new baby girl in North Carolina the rest of the first week of January.  On our return, we visited my daughter and her family then saw my oncologist for the results.

``You have Cancer,” he said, and gave the details.  I was relieved to finally have a definitive diagnosis.  Now the facts could be used to determine the best course of action, which ended up being a radical prostatectomy.  I am pretty much back to normal aside from the occasional pang of minor pain in my gut or the itch from one of the 6 incisions on my abdomen.

I am cleared to play hockey again.  Cannot wait to start, so watch out!

A Small World

I always marvel at what we call science.  I am not referring to a collection of knowledge that is catalogued in textbooks, but rather the dynamic collective intellect that lives in the minds of its practitioners, able to adapt like a powerful fluid, tackling tough problems and seeking to understand the most profound puzzles of the universe and existence.

Science is built on a world-wide network of individuals who have a passion for the truth and work tirelessly in its pursuit.  Much of the work is done in solitude, with occasional interactions with others that leads to new ideas and insights that diffuses through that network.  This global mind greatly exceeds that capacity of the sum of its parts.

This morning I got an email from a senior colleague that reminded me of my privilege of being a small cell in this magnificent organism.  That email included two photos of me as an undergraduate working at Fermilab in the summer of 1977.  In those formative early years, my mind was drinking that wonderful nectar of physics at the quickest rate ever and built the foundations that I continue to call upon.

The work at Fermilab might not seem all that glorious.  I strung cables through conduits under hot, dusty and humid conditions, operated cranes that moved multi-ton detectors, cut my hands while working sheet metal to shield the detectors and calibrated photo tubes.  The point of it all was to study the interactions between quarks, and that made the work glamorous in my mind.

In today's post-fact world, this email reminded me of the glorious bubble in whcih I live, only occasionally surfacing to be disgusted by current events.  Below is that email and the photos are shown here to the right.  The only correction is that I was an undergraduate at the time, not a grad student.

To all my fellow scientists, I appreciate you all!

On 3/26/2020 4:30 AM, Manolis Dris wrote:

Dear  Mark, I  remember  you  from  my  years with the Univ. of Pa.

I  was stationed at Fermilab, working in the group of  the  late  Walter Selove.

I returned to Greece 1980.

I retired several years  ago from the National Technical Univ. of  Athens. I  work with the ATLAS experiment at  CERN, now  not  much.

I  am Professor  Emeritus (my  age  77+  years). I  remain  at  home  and  decided to organize  some  of  my  old  photographs.

I  found  your  name  from Wallter Kononenko (UPenn).

I  have  two  pictures of  you  one  with Larry Cormell and  the  other  with  me (my  face is  not  visible).

I  remember  you  as  a  young  man with a  laugh in  your  face. I  noticed  from  your  resent  photo in  your  site that your laugh is  till with  you.

Congratulations  for  your excellent carrier. BRAVO.

I  have  always problem how  to  explain to  students about  photons as  quanta (localization etc) etc

I  advised them  to  wait till  they  learn more  about quantum optics so  they  will  be  able  to learn  little  more. Most  of  us  know  something  about  the  subject

from general physics  and classical more or  less optics.

I  am  proud  to know  you.

Keep  up  the  good  work.

Manolis  Dris

 

 

Dear Manolis,

    Your email has really brightened my day!  Our University is
    basically shut down due to Covide-19, so we are all working from
    home; how wonderful that we can communicate around the world by
    email.  It's nice seeing my younger self and amazing to me that I
    did not look as tired as I recall feeling after working so many
    hours with so little sleep.
  
    I am 61, getting close to 62, and still working.  Physics continues
    to be my passion.  How many people can love what they do after so
    many years?  It must have been great fun working on the ATLAS
    experiment, which had such profound results!
   
    Incidentally, my first graduate student was from Greece and she
    stayed in the US, eventually becoming a senior director at a large
    biotech company.  Hopefully someone will send her future self a
    picture from grad school.  Small world...
 
    I am so happy hearing from you and wish you all the best in the
    future.

 
    Best Regards,

    Mark   

-- 
Mark G. Kuzyk
Regents Professor of Physics
Meyer Distinguished Professor of Sciences
Washington State University
Pullman, WA 99164-2814

Phone: 509-335-4672
Fax: 509-335-7816

Web Page: www.NLOsource.com

Health Effects From 5G Networks

5G is a high bandwidth cellular service that is coming to our area, so our local government is holding hearings for community input.  One can argue that the new antennas are ugly, but those that are vehemently opposed to the upgrade on arguments of purported ill health effects don't have evidence on their side.

I wrote an op ed piece for our local paper on the topic, but the corona virus is getting all the attention so my piece might not appear.  I am pasting a copy below for those of you who may be interested in the topic or who are concerned about their health.  In a nut shell, don't worry!

My piece (submitted to the Moscow-Pullman daily News):

Important policy decisions about 5G need to be informed by the science.  Rather than debating the science, we should use the scientific consensus, or better yet, consilience.  But how can the average citizen determine what is true?  What is the scientific consensus?  Which “expert” should we believe? 

The most reliable experts are those whose own scientific careers are dedicated to research areas that have bearing on the topic.  Highly regarded scientists produce knowledge that forms the foundations on which future researchers or technologists build.  The least reliable sources are those that cheery pick data to support their desired conclusions, claim that the consensus view is wrong without proof, or call upon conspiracy theories.

Why do I discount claims that 5G has adverse health effects?

First, I apply the smell test to see if the claims make sense.  In high-density population centers, all human-made sources of electromagnetic waves add up to a mere 1/1000 the light intensity of the sun (also an electromagnetic wave) at the earth’s surface.  Man-made electromagnetic sources don’t have that much oomph.  Or consider cells in our body that are kept at a toasty 98.6^o F or so.  The energy imparted to cells and molecules due to thermal buffeting at this temperature is huge compared with the energy of electromagnetic waves produces by technology.  How huge?  Like a freight train barreling down the tracks compared to a bee leisurely searching for nectar.  How can 5G have adverse health effects if other ambient influences are so huge in comparison?

Next, we can go to the literature.  However, individual papers can be unreliable, and many of the studies report only on correlations.  But, correlation does not prove causation, as can be Illustrated with examples such as the near-perfect correlation with the diagnosis of autism and organic food sales; or the more humorous one of deaths due to falling televisions being correlated with undergraduate enrollment at US universities.  Talking an arithmetic average of the results of such correlational studies also makes little sense.  The task of interpreting the literature as a whole is compounded by the fact that journals are biased against null results; “a black hole is found at the center of our galaxy,” is a much more exciting headline that is more likely to be published than “researchers cannot find any black holes.”

The best summary of the literature can be found in meta studies, which aggregate the results from many publications to extract a more reliable connection between cause and effect.  These studies start by setting criteria for selecting a paper for inclusion, such as requiring a minimum sample size to improve statistics, demanding double-blind studies to remove bias, and excluding work based on surveys in which variables are not well controlled.  These criteria must be chosen BEFORE the researcher looks at any specific paper to avoid introducing a selection bias that favors a particular result.  Such studies show no adverse health effects of 5G.

Finally, I look for experiments that control the cause and observe the effect directly.   Hyperelectrosensitivity, a purported sensitivity to electromagnetic waves, is simple to test in double-blind experiments.  In such studies, subjects are exposed to electromagnetic stimuli at random times and their reactions recorded.  Both the subjects and the researchers are unaware of the timing of the stimulus to avoid cues that are perceived by the subjects and prevent the scientists from applying their own biases.   There is no observed correlation between the presence of an electromagnetic wave and the subjects’ reaction.  But show the subject a cell phone, and they react.  No well-controlled double-blind studies shows hyperelectrosensitivity (see tinyurl.com/rumdkvv).

In response to my letter of February 7^th, George Bedirian points to Americans for Responsible Technology (ART) as “a science-based grassroots organization.” Their website cherry picks publications that support ART’s position and ignores the rest.  One of their founding principles is, “We reject the rush to roll out 5G technology across America.”  No individuals are associated with the website and no reasoned arguments are offered.  The only input accepted from a visitor is a monetary donation.  This is not a science-based organization.

The real benefits of 5G in telemedicine, information and entertainment far exceed the health risks, which are almost certainly non-existent.