| 
Gofman on the health effects of radiation:
 "There is no safe threshold"
| John William Gofman is professor emeritus of 
Medical Physics at UC Berkeley, and lecturer 
for the Department of Medicine, UCSF.  While 
getting his PhD in physics at Berkeley in the 
1940s, Gofman proved the slow and fast neutron 
fissionability of uranium-233.  At the request 
of J. Robert Oppenheimer, Gofman helped produce 
plutonium (not even a quarter-milligram existed
at the time) for the Manhattan Project.  He got 
his MD from UCSF in 1946 (winning the Gold-Headed 
Cane Award, presented to the senior who most 
fully personifies a "true physician") and began his 
research on coronary heart disease.  In 1963 the 
Atomic Energy Commission asked him to establish a 
Biomedical Research Division at the Lawrence 
Livermore National Laboratory to evaluate the 
health effects of all types of nuclear 
radiation.  By 1969, however, the AEC and the 
"radiation community" were downplaying his warnings 
about the risks of radiation. Gofman returned 
to full-time teaching at Berkeley, switching to 
emeritus status in 1973. 
 This interview was conducted by Shobhit Arora and 
Fred Gardner.  It began with discussion of a 
recent item from the Wall St. Journal that 
read, "The White House was surprised and chagrined — 
by Energy Secretary O'Leary's comment about paying 
compensation to atomic-testing victims.  With a
super-tight budget, the White House is now 
scrambling to head off a costly new entitlement."
 
 
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| Gofman: |  Secretary Hazel O'Leary is undoubtedly 
the first breath of fresh air that we've seen in the 
atomic era.  I think what she's doing is great and I 
hope millions — hundreds of millions of people back
her — because she's going to face a ferocious 
opposition.  It's going to be like a nuclear firestorm 
in opposition to her, because she's doing something 
constructive.  I have for 25 years been an intense 
critic of the Department of Energy.  I say this 
because Hazel O'Leary stands for compassion, candor, 
and credibility — not because I've changed my mind 
about the DOE, which I think is one of the worst 
organizations in the history of our 
government.  Unless it's cleaned out we're going to 
have worse things in the future.  The 
human experimentation that has been done is bad, and it's 
good that that's being cleared away.  But for 25 years 
the DOE has not shown any concern for the health
of Americans.  Their concern has been for the health 
of the DOE.  Their falsehoods concerning the hazards 
of ionizing radiation have put not thousands of people 
at risk, not millions of people, but billions of people. 
 
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| Synapse: | What if Clinton doesn't back
O'Leary in the days to come? 
 
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| Gofman: | The worst-case scenario is this.  Ever since 
its inception, the Atomic Energy Commission — then called 
ERDA, then called DOE — has had one thing in mind: "Our
program is sacrosanct."  And they recognize, as I've 
recognized, that their entire program will live or die 
based upon one thing.  If the public should come to 
learn the truth about ionizing radiation, nuclear energy 
and the atomic energy program of DOE is going to be
dead.  Because the people of this country — and other 
countries — are not going to tolerate what it 
implies.  The key thing — it's everything in the DOE 
program — is: "We must prove that low doses of 
radiation are not harmful."  They have been conducting 
a Josef Goebels propaganda war, saying there's a safe 
dose when there has never been any valid evidence for 
a safe dose of radiation.  Yet the DOE and others 
continue to talk about their "zero-risk model." 
 After Chernobyl, I 
estimated that there were going to be 
475,000 fatal cancers throughout Europe — with another 
475,000 cancers that are not fatal.  That estimate was
based on the dose 
released on the various countries of 
fallout from Cesium-137.  The DOE put out a report in 
1987 and I don't think it's any credit to the 
University of California that part of this report was 
done in the Livermore Lab, where I once worked, and
part in Davis — saying "our zero-risk model says that 
at these low doses, nothing will happen, because low 
doses are safe."
 
 How would a safe level of radiation come about?  It 
could come about in theory if the biological repair 
mechanisms — which exist and which will repair DNA 
and chromosomes — work perfectly.  Then a low dose of
radiation might be totally repaired.  The problem, 
though, is that the repair mechanisms don't work 
perfectly.  There are those lesions in DNA and 
chromosomes that are unrepairable.  There are those 
where the repair mechanisms don't get to the site 
and so they go unrepaired.   And there are those 
lesions where the repair mechanisms simply cause 
misrepair.  We can say that between 50 and 90 percent 
of the damage done by ionizing radiation is repaired 
perfectly.  What we are then seeing is harm done by 
the residual 10 or 40 or 50 percent that is not 
repaired perfectly.
 
 The evidence that the repair mechanism is not perfect 
is very solid today.  What we wanted to have was evidence 
that as you go down to very low doses — a rad, or a 
tenth of a rad — is that going to produce 
cancer?  Determining the answer by standard epidemiological 
studies would take millions of people, and we don't have 
that.  So it creates a field day for the DOE to say, 
"Well, we don't know."  But I looked very carefully 
in 1986 for any studies that could shed light on that
all-important question.  And I presented that evidence 
at the American Chemical Society meeting in Anaheim.
 |  
| 
| The lowest dose of ionizing radiation 
is one nuclear track through one 
cell.  You can't have a fraction of 
a dose of that sort.  Either a track 
goes through the nucleus and affects 
it, or it doesn't. |  |  
| Synapse: | That the lowest doses will produce cancer? 
 
 |  
| Gofman: | The answer is this: ionizing radiation 
is not like a poison out of a bottle where you can dilute
it and dilute it.  The lowest dose of ionizing radiation 
is one nuclear track through one cell.  You can't have a 
fraction of a dose of that sort.  Either a track goes 
through the nucleus and affects it, or it doesn't.  So I 
said "What evidence do we have concerning one, or two or 
three or four or six or 10 tracks?"  And I came up with
nine studies of cancer
being produced where we're dealing with up to maybe 
eight or 10 tracks per cell.  Four involved breast 
cancer.  With those studies, as far as I'm concerned, 
it's not a question of "We don't know."  The DOE has
never refuted this evidence.  They just ignore it, 
because it's inconvenient.  We can now say, there 
cannot be a safe dose of radiation.  There is no safe 
threshold.  If this truth is known, then any permitted 
radiation is a permit to commit murder. 
 What other things does the DOE use as crutches?  "Well, 
maybe if you give the radiation slowly it won't hurt 
as much as if you give it all at once."  Now if you 
have one track through a cell producing cancer, what 
is the meaning of 'slowly?'  You have the track or 
you don't.  It comes in on Tuesday or it comes in on
Saturday.  To talk about slow delivery of one
track through the nucleus is ludicrous.  But they
do it anyway.
 
 There is a more radical fringe that says, "A little 
radiation is good for you.   And all this stuff 
about radiation causing harm is bad for society 
because it's going to prevent the program we think 
should be instituted, and that program is to give 
everybody in the country radiation every day as a 
new vitamin."  This program is called hormesis.  "A 
little radiation will give your immune system a kick
and help you resist cancer and infectious 
disease."  The chief exponent is a man named Thomas 
Luckey, formerly of the University of Missouri.  He 
bemoans the fact that we can't get this program into 
high gear.
 
 
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| Synapse: | Is anybody taking him seriously? 
 
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| Gofman: | The idea is manifestly absurd.  But 
that didn't prevent the DOE from helping to sponsor a 
conference in 1985 in Oakland on the beneficial effects 
of radiation, hormesis.  And the nuclear enterprise is 
really at it all the time.  They had another such
conference in 1987, and another in 1992. 
 
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| Synapse: | What are the implications of
there being a safe dose of radiation? 
 
 |  
| Gofman: | They don't have to worry about nuclear 
waste.  No problem — there's a safe dose, nobody's 
going to get exposed to more than the safe dose.  The 
clean-up and disposal of waste has been estimated to 
be in the billions, if they're really going to clean up
Hanford and Savannah River and all the rest.  Recently, 
Dr. Robert Alexander in an exchange of letters in the 
Health Physics Journal — he was with the Nuclear 
Regulatory Commission, and former president of the Health 
Physics Society — said there's no proof that low-level 
radiation is harmful...  Anybody who gets half a rad a 
year from waste disposal shouldn't be counted, they 
don't matter.  They don't matter for somebody who's 
apologizing for the nuclear industry.  But they 
matter!  And they're going to matter in the millions, 
tens of millions and hundreds of millions if, because
of statements like Alexander's, it becomes okay to give 
people 10 rads.   You won't have to bury things in these 
fancy vaults.  You won't have to worry about 
transport.  You can even dispose of it in ordinary 
landfills.  That will be the result.  That's what the 
future will be.  If low doses don't matter, the workers 
can get more and their families can get more by being 
in the vicinity.  That's what we face. 
 
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| Synapse: | What are the limits for lab
technicians and other workers wearing badges?  What's 
the limit now? 
 
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| Gofman: | 5 rems per year.  That's going be cut down 
to one or two rems per year.  By the way, medical 
radiation, from x-ray machines, is roughly twice as 
harmful per unit dose as Hiroshima-Nagasaki radiation. 
 
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| Synapse: | Why is that? 
 
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| Gofman: | It's the effect of linear energy 
transfer.   When gamma rays or x-rays set electrons in 
motion, the electrons are traveling at a lower speed 
than the electrons coming out of Cesium-137.  And as a 
result, when they're traveling at a lower speed, they 
interact much more with each micrometer of path they 
travel.  Therefore the local harm is much greater.  So 
medical x-rays set in motion electrons that are traveling 
at a lower speed and hence producing about twice the 
linear energy transfer, and hence twice the biological 
effect.  That's why alpha particles from radium or 
plutonium are so much more devastating than beta rays 
set in motion from x-rays.  The alpha particles, with 
their heavy mass and plus-2 charge, just rip through 
tissue so strenuously that they don't go very far.  A
deception of the crassest sort are the lectures by 
pro-nuclear people showing a plutonium or radium source 
and putting up a piece of paper and showing that the 
alpha-particle radiation on the other side is 
zero.  "You see, a piece of paper will stop those alpha 
particles, folks, there's no problem with 
plutonium."  Except when that alpha particle is lodged 
next to an endosteal cell in the bone and producing a
horrendous amount of interaction.  Or that alpha particle 
is lodging on the surface of the bronchi — that's why 
we've got an epidemic of lung cancer among the uranium 
miners!  The fact that they don't travel far is because 
they interact like hell! 
 
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| Synapse: | Do you think medical 
professionals really appreciate how much potential there 
is for damage?  Regardless of who you are, you go into 
the hospital and you get a chest x-ray as a routine 
diagnostic procedure. 
 
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| Gofman: | I'm sad to say, I don't think 90% of 
doctors in this country know a goddamned thing about 
ionizing radiation and its effect.  Somebody polled some
pediatricians recently and said, "Do you believe there's 
a safe dose of radiation?"  And 45% said, "Yes."  They 
weren't asked, "What papers have you ever read on this 
subject that led you to conclude there's a safe 
dose?"  I think medical education on the hazard of 
radiation is atrocious.  What have they taught you in 
radiology? 
 
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| Synapse: | Basically, whenever it's not
necessary, don't do a radiological procedure.  But they
have qualified that with the implication that most 
radiological procedures really aren't that dangerous — a 
tenth of a rad here really isn't too bad.  It's better 
to get the information from a procedure than not. 
 
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| Gofman: | Part of that is okay.  If you ask me,
"Do you stand against medical x-rays?" the answer is 
no.  And I've written a book with Egan O'Connor on the 
health effects of common exams.  We take the position: if
there's a diagnostic gain for you — something that can 
really make a difference in your health and your 
life — then don't forego the x-ray.  But there's another 
part of the picture.  Up until recently — it may be a 
little better now than it was — government studies
show that most hospitals and most offices of radiologists 
didn't have the foggiest notion of what dose they were 
giving you for a procedure.  Nor did they know that the
procedure could be accomplished with a third or a tenth 
of the dose.  Joel Gray, a health physicist at the Mayo 
Clinic, said there are places giving you 20 times the 
dose needed for a given picture.  And, he said, "If you 
ask those people and they can't answer, you can be fairly
confident that they're giving you a bigger dose than 
necessary."  So Egan and I, in The Health Effects of 
Common Exams, took the data on what the average 
doses were in the United States, versus what has been 
accomplished by some elegant work in Toronto to reduce 
the dose to one-third of what was the average practice 
in 1984, and found that about 50,000 fatal cancers per 
year could be prevented.  That' s a million and a half 
in a generation!  So what is this stuff about "Most 
procedures don't hurt you, they're small?" 
 Let me say one more thing about the medical 
profession.  It's my view that we have a really crazy 
situation with respect to x-rays.  You go to a 
physician — your internist, or a GP, or an obstetric 
gynecologist, or an orthopedic surgeon — these are the 
people who send you out for an x-ray.  They represent, 
or should, your ombudsperson.  And they, not you, should 
have to find out whether the facility they're sending you 
to uses five times the dose needed, or a decent dose of 
radiation.  But if you ask that so-called ombudsperson, 
"Where you're sending me, do they know how to keep the 
dose down?  What dose will I get?"  He'll mumble, "Don't 
worry about it, no problem."  That's the fault of medical 
education in our universities.  If we turn out physicians
who don't have the attitude that they're the ombudsman 
for things like that, I think they're not doing the job.
 
 
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| Synapse: | A friend who had a melanoma was 
told there had been a 20-fold increase in the past 50 years, 
but "We don't really know what's causing it."  It's as if 
many in the medical profession don't want to make the obvious 
connection between radiation, pollution, pesticides and the
cancer rates. 
 
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| Gofman: | The medical profession is implicated 
directly.  I've spoken to Andre Bruewer, who practices in 
Tucson.  He's a first-class radiologist who does nothing 
but mammography.  And he said, "John, I shudder to think 
of what we were doing 20 years ago."  We were touting 
mammography when the dose was four to five rads, and in 
some cases 10 rads.  Now if you give enough women four to 
five rads, at something of the order of a 2 percent 
increase in breast-cancer rate per rad —  that's what my
analyses show, and I've analyzed the world data on x-rays 
very carefully with respect to breast cancer in 
particular —  it has to be that women irradiated 15, 20 
years ago got horrendous doses from mammography compared 
to now.  And therefore, some of the present increase in 
breast cancer has to be from the radiation they got; but 
they don't like to talk about it. |  
| 
| Women irradiated 15, 20 years ago got horrendous
doses from mammography compared to now.  And
therefore, some of the present increase in breast 
cancer has to be from the radiation they got. |  |  
|  | There was a time, 20 to 30 years ago, when there were 
mobile x-ray units that gave x-rays of the chest.  They 
didn't give the 20 millirads [a 50th of a rad] that is 
possible today.  They gave about five rads.  Children 
went through those things by the thousands.  And we 
just say, "We don't know why this cancer epidemic is 
taking place now."  Nobody's taken account of it.  It's
hard to know how many children got it and who they were 
and follow them up.  But you know that a certain number 
of people are having cancers now as a result of what was
done 15, 20 years ago. 
 Back in the '50s one woman brought a child in in the 
middle of the night having real difficulty breathing, 
and a resident said, "Maybe the thymus gland is 
enlarged and pressing on the trachea.  Let's give this 
child 100 or 150 rads of radiation in the neck."  And 
as with many disorders, the child got better by 
morning.  And so this resident put two and two together 
and said, "I gave the radiation, the child got better, 
therefore I cured him." And so this became the rage and
all kinds of hospitals were using radiation to
treat an enlarged thymus.
 
 
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| Synapse: | What's the danger from an enlarged thymus? 
 
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| Gofman: | There have been careful studies now of 
these kids that had the irradiation for enlarged 
thymuses — which, by the way, is no longer believed 
to have been a disease that existed in the first 
place — and they're having an excess of thyroid cancers, 
an excess of salivary gland cancers.  One hospital in 
Pittsburgh said, "Why should we wait till these 
children come into the emergency room at night with 
croup?" And they, for a period of over a year, gave 
x-rays to every child leaving the nursery... 
 There is this wall that prevents us from relating past 
experience to the occurence of cancer.  The full effects 
are not known.  It's not just what the average dose was 
back then, some places were giving horrendous 
doses.  Sometimes they'd get a picture that was too 
faint.  So they'd take another one, with a longer 
exposure — when the problem was that their developing 
solution was getting spent.  And all they had to do was 
change the developer.  But instead of that they gave the
person an extra x-ray with a bigger dose.
 
 
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| Synapse: | What general principles should a
patient bear in mind when considering a procedure? 
 
 |  
| Gofman: | If I were a member of the public, knowing
what I know: if the establishment told me that something 
had a certain risk, I'd assume that the true risk was at 
least 10 times worse.  Part of the problem comes from the 
patient.  If a patient goes to a doctor — especially if 
he's covered by a health plan — and the doctor doesn't 
give him any procedures, they feel cheated.  "You didn't 
even take an x-ray!"  But the medical profession has to be 
regarded as culpable, along with the DOE.  They both have 
the same conflict of interest: their work exposes people 
to radiation.  For the DOE there have been all kinds of 
people of shady character in all kinds of government 
posts.  But damn it, the medical profession shouldn't be 
shady and corrupt.  I'd like to see them really apply the 
Hippocratic oath to this field. 
 
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| Synapse: | Could you describe your work
regarding the retroactive tampering with databases? 
 
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| Gofman: | For years I've tried to believe that what 
was going on in Hiroshima-Nagasaki in what was called the 
Atomic Bomb Casualty Commission — subsequently renamed the
Radiation Effects Research Foundation — was the only place 
where we had a huge body of data that addressed the question 
of what happens to people who have been exposed to varying 
doses.  If there is an event like Chernobyl, or Hiroshima, 
we have to insist on the sacred meaning of collecting an 
honest database concerning what happens to people — (A) 
doing the very best job of determining what dose they got, 
and (B) doing a follow-up study that is beyond 
reproach.  That is an obligation to humanity that is 
virtually sacred.  If you do anything less than the best in
that kind of endeavor, you're a scoundrel.  So all this 
time I wanted to believe in the work that was being done in 
the Hiroshima-Nagasaki studies.  In 1986, because of some
questions about what the neutron dose was relative to the 
other forms of radiation — gamma rays, primarily — they 
did a revision of the doses.  Now I don't have any 
objection to the revision of doses, provided that you obey
the cardinal rules of medical research.  The first cardinal 
rule of medical research is: never, but never change the 
input data once you know what the follow-up shows.  So 
because they had this idea of changing the doses, they 
didn't just change the doses, they shuffled all the 
people from one dose category to another, with a new 
dose.  So there was no continuity with everything that
had been done up to 1986. |  
| 
| The first cardinal rule of medical 
research: never change the input 
data once you know what the 
follow-up shows. |  |  
| Synapse: | Who's 'they?' 
 
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| Gofman: | The Radiation Effects Research Foundation in 
Japan.  The director is Itsuzo Shigematsu.  The associate 
director is a guy by the name of Joop Thiessen, who's from 
the DOE.  It's a DOE-sponsored endeavor —  DOE and the 
Japanese Ministry of Health.  There couldn't be a worse 
set of sponsors. 
 
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| Synapse: | The Japanese have the same
kind of commitment to nuclear energy? 
 
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| Gofman: | Absolutely.  So I said, "You can't do 
this.  You want a new dosage, keep the old groupings and 
just assign the new dose and study [the results]."  I call 
that "constant cohort, dual dosimetry."  So I wrote a 
letter to Shigematsu and said, "This is a violation of the 
cardinal rules of research.  There is a way to do this 
correctly, and you can keep changing doses all your life, 
provided you just stick them alongside what you've done
originally."  Shigematsu's reply is in my 
book.   [Radiation-Induced Cancer from Low-Dose 
Exposure, 1990]  It's simple.  He said, "Trust
us."  Well, the reason for the cardinal rule of research 
is, nobody ever has to say, "Trust me."  Because you set 
things up with blinding, with appropriate procedures, so 
that your database is immaculate.  You don't go changing
things and say, "Well we did it objectively."  I said, 
"Report in the old way — the old dosage — and the new 
way."  They said, "We won't do that.  But we'll consider 
it.  And we will give you the data in the old way for 
three more years."  What's the shape of the cancer curve 
with the latest data from Hiroshima-Nagasaki?  If I use 
the old data, it's like this (diagonal, rising 
line).  What's the shape of the curve with their new 
dosimetry?  It's like this (slowly rising line that 
then goes up abruptly). |  
| 
| If a crook makes the
database, Einstein will get the
wrong answer out of it. |  |  
| Synapse: | Making it look as if the
low-level of radiation is acceptable? 
 
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| Gofman: | Exactly.  Their ultimate goal is
fulfilled. 
 
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| Synapse: | How did they determine who received 
what dosage at the time of the explosion?  Was it based on 
how far away people were from ground zero? 
 
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| Gofman: | Distance was the biggest factor, but also 
whether you were outdoors or indoors, whether you were in 
a concrete or wooden structure.  They tried to do a lot of 
that.  And they shouldn't keep changing the placement of
people!  You take people with cancer and say, "Well, I guess 
the dose they originally got must have been a lot 
higher.  We'll put that person here [in this dose category] 
and this one there."  And with that sort of approach, you 
can make truth whatever you want it to be.  And there's a 
very important additional lesson.  Humanity needs to insist 
on the immaculate construction of databases concerning any
accident or major event.  If a crook makes the database, 
Einstein will get the wrong answer out of it.  And then 
what happens?  The Einsteins, with the best credentials, 
using this lousy, fabricated, false database, will put 
their findings in the medical journals.  And then they 
get into the textbooks.  And then it's taught to medical 
students for the next 100 years.  And what 
happens?  Hundreds of millions of people will suffer from 
cancer and genetic diseases because the answer will be
wrong.  The key thing is getting an honest database. |  
| To be continued next week
 
 
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| 
  
Interview with John Gofman.  continued:
 Challenging The Nuclear Establishment
  
This is part two of an interview with John Gofman, 
lecturer emeritus for the Department of Medicine.  On 
the day part one appeared (Jan.  21), the Chronicle 
ran a story about "that dependable fellow, Mr.  Pluto" a 
perky little cartoon character created by the Japanese
Power Reactor and Nuclear Fuel Development Corp.  In 
the Mr. Pluto video, a youngster drinks a 
plutonium-laced soda and declares himself 
refreshed.  Gofman comments on Mr. Pluto: "This is their 
opening salvo in a huge campaign of `A little radiation is 
good for you, and besides, most of the plutonium goes 
through your gut.'  Never mind the fact that as it goes 
through the large intestine, it gives the colon cells a 
dose of alpha radiation.  The Japanese are the biggest
promoters today of nuclear breeders and 
reprocessing.  Reprocessing increases the hazard of nuclear
power by a thousand.  If you do it just leaving it as fuel 
rods, the possibility of an accident is bad enough.  If you 
reprocess, you have to dissolve the fuel rods, and then 
you've got to handle the plutonium chemically."
 
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| Synapse: | How did you make the transition
from being a respectable member of the `radiation community' 
to being an independent critic? 
 
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| Gofman: | I was criticized and denounced by the Atomic
Energy Commission (AEC) for one thing.  I said that radiation 
was more harmful than was previously thought. 
 
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| Synapse: | When was that? 
 
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| Gofman: | In 1969 — after they had given me $3 million 
a year for seven years to take time off from my teaching and 
set up a biomedical division at Livermore.  One week after I 
gave the talk!  If you say something they don't want to hear, 
they make a pariah out of you. 
 
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| Synapse: | They certainly managed to marginalize 
Linus Pauling.  Way back in the 1950s he was describing the 
effects of fallout, Strontium-90 in the milk, the dangers to 
the people of Nevada and Utah. 
 
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| Gofman: | Linus's 1954 estimates were all pretty near to the
mark... 
 
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| Synapse: | Are we getting honest data about
Chernobyl? 
 
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| Gofman: | Evgeny Chasov, who shared the Nobel Peace Prize
with the International Physicians for the Prevention of Nuclear 
War, made a public statement that nobody has been harmed in the
population at large.  He obviously wasn't referring to the 
people who got killed immediately.  There've been all kinds of 
statements to the that effect.  Alla Yaroshinskaya, a journalist 
in Zhitomirsk, a small city in the Ukraine, became very 
suspicious of the sort of things that were being said.  She 
found out that some of the people who were being moved had been 
moved to a place that was even hotter sometimes — it was all 
just for show!  Her paper wouldn't publish her investigation, 
and they told her she'd be in big trouble...  But she persisted, 
and she got Izvestia to publish it, and she became well 
known.  She got elected to the Supreme Soviet.  And she demanded 
to see the protocols of government meetings on the Chernobyl 
situation.  She managed to get all 40 protocols, and she wrote 
an article, which is now in book form in Russian and, there's
a French edition: "The 40 Protocols of the Wise Men of the
Kremlin."  And it shows that at every one of their meetings, 
what they were saying internally was the exact opposite of what 
they were saying publicly... 
 [Yaroshinskaya is now vice minister of mass media in Russia 
and a personal advisor to Boris Yeltsin.  Gofman has written the
introduction to an English-language edition of her book.  For 
their work on the longterm health effects of Chernobyl, Gofman 
and Yaroshinskaya shared the 1992 "Right 
Livelihood Award," given 
by a Swedish foundation.  In his acceptance speech, Gofman 
proposed that a network of scientists who don't have to answer 
to government serve as "watchdogs" and participate in every stage 
of the construction of the Chernobyl data base.]
 
 
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| Synapse: | Did anybody pick up on the
watchdog idea? 
 
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| Gofman: | I met with Yuri Shcherbak, the minister for the
environment for the Ukraine.  Yuri was a journalist and a 
physician, who also had revealed some of the things that 
had been going on with the Chernobyl data.  In the new 
government in Ukraine he was made minister of the 
environment.  He liked the watchdog concept, but he said, 
"If I'm going to propose that to the Ukrainian government, 
could you get some more scientists who would endorse 
it?"  So I wrote letters to about 50 people around the 
world, and about 47 said they would serve on a commission 
to set this up in Ukraine.  And I sent this off to Yuri, 
but I never heard back.  One of his aides was in town and 
called me up with a message from Yuri.  He said, "As soon 
as Yuri got back from seeing you, the Ukrainian government 
set up a special division to handle Chernobyl, and that 
was moved out of Yuri's environmental department."  And a 
little later Yuri was moved over to become the ambassador 
to Israel — it might have been to the North Pole.  So that 
died.  I have some hopes that Alla might be able to get the
idea through in Russia, but the nuclear mafia in Russia is 
very strong.  They're proposing to go gung ho on nuclear 
power.  I wouldn't be surprised if a lot of them are members 
of the nationalist group around Zhirinovsky. 
 
 |  
| Synapse: | How would the watchdog concept
work in the United States? 
 
 |  
| Gofman: | What I'm proposing is that if the Department of
Energy spends $100 million on health-related activities — and they
have their fingers in every university department of statistics and
radiology — $10 million should go to a grass roots organization of
scientists to make sure that the studies being carried out are honest. 
 Take the worker population in America.  Do you believe what
the DOE says about the doses workers are getting?  I don't.  I 
think a lot of scientists would be interested and willing to do 
that work, if it were honored rather than — you know, you get 
thrown out for saying something.  The scientists who were funded 
by the DOE at Los Alamos, Livermore, Berkeley, 
Brookhaven — they're self-censored.  They know what's okay to 
say, and they know what's not okay.  They know my history.  And 
they're not about to repeat it.  Which brings us back to where 
we started.  When I saw Hazel O'Leary come an the scene, I just 
got the impression that this lady is for real.  She faces a 
tremendous task  — just on the human experimentation, the 
suggestion that people be made whole and receive apologies.  I'd
like to see this lady get 100 million Americans behind her so 
that she can't be weakened.  I think there's a chance that in 
her administration the watchdog idea could fly.  If we don't get 
it through in her administration, I thinly DOE will go back to 
just what it was before.  And then there's not much hope for 
humanity.
 
 
 |  
| Synapse: | Could you comment on the human 
experimentation that was conducted? 
 
 |  
| Gofman: | I think it was unethical.  And I think that 
any statements such as, "But the doses were low" — that's 
a fraud.  The doses in Cal 1, Cal 2, and Cal 3 [the three 
people who received injections of plutonium at UC Med 
Center] were very high — 11,000 rems to the bone for Albert 
Stevenson [Cal 1].  Albert Stevenson was injected with a huge 
dose of plutonium at UC Hospital because he had a supposed 
cancer of the stomach.  Now some are saying, "Well, we didn't
know whether plutonium could hurt anybody."  They should watch 
out, because they're going to be caught in a lie of profound 
proportions. 
 The radiations that we have are x-rays, gamma rays, beta 
rays, alpha particles, and neutrons.  Neutrons you only get 
near a bomb or a reactor.  Alpha particles are emitted by 
many elements high in the periodic table as you get up 
above lead: uranium, thorium, protoactinium, neptunium, 
plutonium — all are alpha particle emitters.  An alpha 
particle is a plus-2 charged helium atom in high-speed 
motion.  We describe them by how much energy they're 
carrying off from the emission.  Four and a half million 
electron-volts  — 4.7, 5.2 — the various alpha emitters 
are all in that range.  And you can say that what one alpha
emitter does, any alpha emitter will do if it gets to the 
same place.  So for somebody to say, "We didn't know about 
the alpha particles from plutonium."  It's the same 
as saying "We know how it works in New York, Chicago,
Philadelphia, but what about Peoria?"
 
 In the '20s we had a radium-dial painting industry to 
paint the dials of wristwatches and clocks.  Women sat 
at tables with a little pot of radium paint, painting 
these dials by hand.  Their brushes would get diffuse 
and they'd take the brush and twirl it in their mouths 
to get a fine tip to paint with.  And these women came
up with the most horrible bone destruction due to the 
alpha particles from radium in their bone.  Osteogenic 
sarcomas.  It was all written up by 1929, by Harrison 
Martland, the coroner in New Jersey who examined their 
bodies.  The whole world knew that alpha particles from
radium had done this to humans.  Now an alpha particle, 
really, doesn't ask who its mother or father was.  An 
alpha particle is an alpha particle.
 
 In Germany and Czechoslovakia there are regions where 
it was long known that 50 to 75 percent of the miners 
died of what was called "mountain sickness."  In the 
late 19th century Hartung and Hesse discovered that 
this mountain disease was lung cancer.  In the 1930s, 
Peller and another group determined that the reason 
for the lung cancer in the miners was breathing radon
with alpha particles from the uranium in the mines.  So 
alpha particles had been proven to produce cancer.  So 
to say that the effects of alpha particles from plutonium
were unknown — it's just not true.  The AEC, which 
approved of some of that experimentation, knew 
precisely what the results would be.  Merril Eisenbund, 
a pro-nuclear environmentalist, was working for the AEC in
1947.  He went out west to inspect what was going on in 
the uranium mines in Arizona, New Mexico, and 
Colorado.  He came back and wrote a report saying the 
mines are not being ventilated, and if we don't get them 
ventilated, we're going to have a lung-cancer epidemic 
worse than Germany and Czechoslovakia.  He was told to
move over to another division, never to say anything 
more about the mining situation in Colorado.  The mine 
operators were not informed, the mine workers were not 
informed, and we had the lung-cancer epidemic that had
been predicted.  The AEC knew all this.  Can you tell 
me there's any evidence that the AEC, ERDA or DOE ever 
gave a damn about human health?  They were the same 
people who approved the human experimentation.  And to 
try to justify it in the name of the Cold War and 
things like that, that's ridiculous.  The Cold War did 
not require knowing where plutonium went in people's
bodies!
 
 
 |  
| Synapse: | Do you think the mechanisms that
are in place today, such as the human subject committees, 
are sufficient to keep this kind of research from taking 
place? 
 
 |  
| Gofman: | I think they're better than having no
committees, and that [unethical experimentation] is not 
as likely now.  But it just seems to me that when grants 
are involved, and the prestige of the institution is 
involved, if some research is exciting but maybe 
off-color, I wouldn't be surprised if some of the 
committees would overlook it.  I'm not impressed by the 
integrity and forthrightness of the medical 
establishment.  I wouldn't have said this 10, 15 years 
ago, but today, when I look at an article in a medical 
journal — peer review means nothing to me, that's just 
an old boys' club — I say to myself, "Why should I 
believe this?"  I've watched stuff get in that was peer 
reviewed that was absolute rubbish, and they had to
know that it was absolute rubbish. 
 I just have lost my confidence in their integrity.  A 
case in point.  I recently read a study that if you 
treat breast cancer by lumpectomy and radiation, that's 
better than without the radiation.  How carefully was 
that study set up?  Who oversaw the choice of people 
and the outcomes?  It's a very important issue.  If 
you irradiate the chest of women who've had 
lumpectomies, with the kind of doses they're giving, 
you will produce a lot of cancers in the future.  Not 
necessarily the cancer they had, but you're going to 
produce new cancers.  Those new cancers are going to 
come 10, 15 years from now.  If indeed the radiation 
prevents [patients] from dying of the original cancer, 
which would have killed them in a year or two, then I 
say, with their fully informed knowledge, they may 
choose to take the radiation therapy.  But I really 
want to be sure that the data collected on this 
benefit is right.  So my answer to your question 
is: I hope it's better; I think it's better than it 
was; I would like to see better mechanisms still, 
that didn't involve grants and the prestige of the 
university when the university passes on whether 
research is okay.
 
 
 |  
| Synapse: | What do you know about the
release of radiation at Hanford, Washington that, it 
now turns out, was many times worse than Three Mile 
Island? 
 
 |  
| Gofman: | When it became known that there had been 
these big releases, the government finally promised to 
own up.  So a big study is in process now, it's called 
the Hanford Environmental Dose Reconstruction Project, 
fully funded by the government.  And they're trying to 
involve the Indian tribes, and various downwinders.  The
amount of iodine released at Three Mile Island was
estimated at 15 curies —  Iodine-131.  The amount of 
iodine first estimated on this Hanford reconstruction 
was 425,000 curies.  The most recent estimate has it up 
to 725,000 curies.  I calculated the true release of 
radioiodine from Chernobyl at 12.3 million curies.  So 
the amount that was released at Hanford can cause a lot 
of trouble. 
 
 |  
| Synapse: | What kind of trouble?  What does
radioiodine do? 
 
 |  
| Gofman: | In big enough doses it produces thyroid 
cancer and severe hypothyroidism.  In 1992, Kazakov, 
Demidchik, and Astaskhova of Minsk put out a paper in Nature 
saying, "We have 131 cases of thyroid 
cancer in Byelorus alone (since Chernobyl).  The curve 
started up in '89-'90, and the curve is staying up 
there."  This has now been confirmed in Ukraine.  After 
the paper in Nature came out, a UN team went 
there to check their diagnoses, and confirmed that they
were right in 102 out of 104 cases.  And still,
Shigematsu and Thiessen (of the Japanese-DOE Radiation 
Effects Research Foundation), had a letter in the next 
issue of Nature saying "We can't really trust 
this, these cases are coming up too soon, they're not 
really thyroid cancer.  Maybe they're looking harder 
now..."  And in the Journal of Nuclear Medicare
some of the nuclear pundits ridiculed the word from 
Byelorus.  These people never stop!... 
 There will inevitably be thyroid cancer from the releases 
at Hanford, Washington.  Whether they'll be able to 
reconstruct it and admit it I don't know...
 
 There's an investigator named Holm at a Swedish 
hospital.  They've done 38,000 radioiodine scans to 
test thyroid function.  He wrote a series of papers 
showing that even though people got 50 rads to the 
thyroid, there was no excess of thyroid cancer.  When 
I first heard about it I thought, "Wow, you can give 50
rads to the thyroid and cause no cancers?  Does it
mean I'm wrong?"  And this was trumpeted an over the 
United Nations Atomic Effects Committee and everybody 
in the establishment cites it.  Well, I analyzed those 
papers — I devoted a chapter to it in my 1990 book
(Radiation-Induced Cancer from Low-Dose 
Exposure).  And you know what this guy did?  He
threw 135 cancers out of the study, because they 
occured before five years had elapsed.  He said, "We 
know they can't occur before five years."  The 
evidence in Byelorus is that they're coming in four, 
five, six years after the exposure.  If you take the 
135 cases and add them back, you've got a big effect 
from radioiodine.  That's what's being said about 
radioiodine: not to worry, no problem.
 
 
 |  
| Synapse: | How do they refute your analysis? 
 
 |  
| Gofman: | They're smart — they don't refer to it. |  
 
 
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