Amicus Curiae Brief — Bryan v. Moore
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; ' Supreme Court, U.S.
pec 20/77 fe Piven.
No. 99-6723 2 uth 2 Q 1999
OFFICE OF THE CLERK
IN THE
Supreme Court of the Wnited States
ANTHONY BRADEN BRYAN,
- Petitioner,
v.
MICHAEL MOORE, Secretary, Florida
Department of Corrections,
~ Respondent.
On WRIT OF CERTIORARI TO THE
SUPREME COURT OF FLORIDA
BRIEF OF PHYSICIANS FOR HUMAN RIGHTS, GLOBAL
LAWYERS AND PHYSICIANS, SOCIETY OF GENERAL
INTERNAL MEDICINE, AMERICAN NURSES
ASSOCIATION AND AMERICAN PUBLIC HEALTH
ASSOCIATION AS AMICI CURIAE IN
SUPPORT OF REVERSAL
MartTIN J. NEWHOUSE
Counsel of Record
CrysTAL D. TALLEY
KIMBERLY L. PEDERSEN
ELAINE J. GOLDENBERG
Ropes & GRAY
One Internetional Place
Boston, Massachusetts 02110
(617) 951-7000
Attorneys for Amici Curiae
Physicians for Human Rights, et al.
—_
ea
156880 @ Counsel Press LLC
(800) 274-3321 + (800) 359-6859
l
TABLE OF CONTENTS
Page
Table of Cited Authorities .................... il
Interest of the Amici Curiae ................... ]
Summary of the Argument .................... 3
ss, cenit EE CTT TTT oN here 5
I. It Is Undisputed That The Physiological
Effects of Electricity are Extremely Painful
ALND R AMER EEE REDS DO RRO NOEL OE one oes 3
II. There Is A Substantial Risk That Inmates
Remain Conscious For Some Period Of Time
During A Judicial Electrocution.......... 8
RE eee eee re 18
TABLE OF CITED AUTHORITIES
Cases:
Fierro v. Gomez, 865 F. Supp. 1387 (N.D. Cal.
1994), aff'd, 77 F.3d 301 (9th Cir.), vacated, 519
As PED CONSE) ia ds ee ee edaneehe ee ones
Jones v. Butterworth, 695 So. 2d 679 (Fla. 1997) ...
Jones v. State, 701 So. 2d 76 (Fla. 1997) ..........
Poyner v. Murray, 507 U.S. 981 (1993) .........
Provenzano v. Moore, __ So. 2d _, 1999 WL
Fa@uss Hie. SOM, Dy TSPF) vv iiecan cease
Other Authorities:
1993 Report of the AVMA Panel on Euthanasia, 202
JAVIBA 250 Clam. 15, PRS) asec cov acessaaes
Arnold Beichman, The First Electrocution, 35
COMMENTARY 410 (May 1963) ...............
Theodore Bernstein, Electrical Injury: Electrical
Engineer’s Perspective and an Historical Review,
ANNALS OF NEW YORK ACADEMY OF SCIENCES, May
SOO vevvisccdnnd cane ses eee eee
HARRISON’S PRINCIPLES OF INTERNAL MEDICINE 859
(Eugene Braunwald et al. eds., 11th ed. 1987)
ees @eeseeueu eo eosece PCeseosesveeeaee eC eee eae eae nhaen ea 6 6 oe
Page
17
Cited Authorities
Nisha Chibber Chandra et al., Clinical Predictors
of Myocardial Damage After High Voltage
Electrical Injury, 18 CriticAL CARE MED. 293
Se ee ee eee eee
MacDonald Critchley, Electrical Injuries, LANCET,
es lak gah e wee be 6 ieee a6 n.9-
MacDonald Critchley, Neurological Effects of
Lightning and of Electricity, LANCET, Jan. 13,
SR renee ee
Martin R. Gardner, Executions and Indignities - An
Eighth Amendment Assessment of Methods of
Inflicting Capital Punishment, 39 Onto St. L.J.
EE ee eee
IAN Gray & Moira STANLEY, A PUNISHMENT IN
Seancn or A Crime (1989) .........2.c cece.
Baiba J. Grube et al., Neurologic Consequences of
Electrical Burns, 30 J. TRAUMA 254 (Mar. 1990)
J.P. Guinard et al., Myocardial Injury After Electrical
Burns: Short and Long Term Study, 21 Scanb. J.
PLAST. RECONSTR. SuRG. 301 (1987) ...........
C.E. HARTFORD, CARE OF THE CRITICALLY ILL PATIENT
(J. Tinker & M. Rapin eds., 1983) ............
Page
10
11
16
iv
Cited Authorities
Page
Harold Hillman, An Unnatural Way to Die, 27 NEw
oe wy Tk | ee eae 3, 8,9
Harold Hillman, The Possible Pain Experienced
During Execution By Different Methods, 22
PERCEPTION 745 (1993) .......... Ds Be be Ba aT
John L. Hunt et al., The Pathophysiology of Acute
Electrical Injuries, 16 J. TRAUMA 335 (1976) ... 9
Thomas N. James et al., Cardiac Abnormalities
Demonstrated Postmortem in Four Cases of
Accidental Electrocution and Their Potential
Significance Relative to Nonfatal Electrical
Injuries of the Heart, 120 AMERICAN Heart J. 143
EE 0 hadnt sdieliadaecse cleanses 12,15
PRINCIPLES OF NEURAL SCIENCE (Eric R. Kandel
OPER. Sis SEOEE Cw ke dh wecekpesdtheunewunen 6
John G. Leyden, Death in the Hot Seat: A Century
of Electrocutions, WasH. Post, Aug. 5, 1990 ... 3
Sherwin Nuland, Cruel and Unusual, N.Y. TIMEs,
Me ee eee Seren Sore rr a 4
Bernard M. Patten, Lightning and Electrical Injuries,
10 NEUROLOGY OF TRAUMA 1047 (Nov. 1992) ...
ere e ETE ee ee ee Pe eee Te Ee 12, 16, 17
A. Sances, Jr. et al., Electrical Injuries, 149 SuRGERY,
GYNECOLOGY & OssTETRICS 97 (1979) ......... Lt, 12
Cited Authorities
Page
V. Garcia-Sanchez & P. Gomez Morell, Electric
Burns: High- and Low-Tension Injuries, 25 BURNS
Eki | rere ere Seer reer 9,10
WILLIAM A. SCHAPAS, THE DEATH PENALTY AS CRUEL
TREATMENT AND TORTURE (1996) ............. 4
Joseph Still et al., Electrocution Due to Contact of
Industrial Equipment with Power Lines, 23 BURNS
PT CeOED: bon 45s ch eRe ee eee 11
NEGLEY K. TEETERS, HANG BY THE NECK (1967)
se Rae Woe kee Ee a a Ce eae 15
HANDBOOK OF CLINICAL NEUROLOGY (P.J. Vinken
eth ey) ere ee ae
]
INTEREST OF THE AMICI CURIAE'
Physicians for Human Rights is an organization of health
professionals, scientists, and concerned citizens that uses the
knowledge and skills of the medical and forensic sciences
to investigate and prevent violations of international human
rights and humanitarian law. In addition to its various
initiatives, Physicians for Human Rights works to prevent
medical complicity in torture and other abuses. Physicians
for Human Rights conducts educational training projects for
health professionals, members of the judiciary, and human
rights advocates on the application of medical and forensic
skills in the investigation of violations of human rights. In
recognition of its accomplishments, Physicians for Human
Rights shared in the 1997 Nobel Peace Prize for its work on
the steering committee of the International Campaign to Ban
Landmines.
Global Lawyers and Physicians works to protect the
human rights and dignity of all persons. Its goal is to provide
support and assistance in developing, implementing, and
advocating public policies and legal remedies that protect
and enhance human rights in health. Global Lawyers and
Physicians also co-directs the Boston Center for Refugee
Health and Human Rights, whose mission is to prevent
torture and aid survivors of torture.
The Society of General Internal Medicine is an
international organization of physicians and others who
1. Pursuant to Rule 37.6 of the Rules of the Supreme Court of
the United States, the amici curiae state that no counsel for either
party has authored this brief in whole or in part and no person or
entity, other than the amici curiae, their members, or their counsel,
has made a monetary contribution to the preparation or submission
of this brief.
2
combine caring for patients with education and research. It
is dedicated to improving patient care, education, and
research in general medicine, as well as to promoting social
responsibility.
The American Nurses Association (“ANA”) is an
association of registered nurses that is dedicated to the
advancement of the goals and interests of registered nurses
and of the nursing profession generally. It was founded in
1897 to promote the professional and educational
advancement of nurses. The ANA represents approximately
185,000 nurses in the United States and its territories through
its 54 constituent member organizations. The ANA
establishes professional standards for nursing practice,
nursing education, and nursing services as well as a code of
ethical conduct for nurses.
The American Public Health Association (“APHA’”’) is
a national non-profit organization devoted to the promotion
and protection of personal and environmental health.
Founded in 1872, APHA is the largest public health
organization in the world, representing over 50,000 public
health professionals. It represents all disciplines and
specialties in public health.
The amici are familiar with the medical evidence relevant
to whether the electrocution process causes intense pain, and
are concerned about the risk of a prolonged, torturous death.
Because an informed discussion of this evidence will
illuminate the question presented to the Court, the amici are
filing this brief to aid the Court’s resolution of this case.
3
SUMMARY OF THE ARGUMENT
From its first use in 1890 in New York to the present,
electrocution as a method of judicial execution has been
described repeatedly as “torture,” akin to medieval methods
such as boiling in oil. See, e.g., Arnold Beichman, The First
Electrocution, 35 COMMENTARY 410, 415-18 (May 1963);
John G. Leyden, Death in the Hot Seat: A Century of
Electrocutions, Wash. Post, Aug. 5, 1990, at DOS (“The New
York Herald called the execution [in 1890] ‘death by
torture.’ ”); Harold Hillman, An Unnatural Way to Die, 27
New ScIENTIsT 278, 278 (Oct. 1983) (“He feels himself being
burnt to death. . . . It must feel very similar to the medieval
trial by ordeal of being dropped into boiling oil.”).
While there is no dispute that application of an electrical
current of the magnitude used in a judicial electrocution
affects the body in ways that would ordinarily cause
tremendous pain, what is disputed is whether the inmate
suffers no pain due to immediate brain death. However, no
study definitively shows that intentional electrocution causes
immediate brain death. See R2. at 705.” Because of a lack of
research, there is in fact no scientifically valid data to support
the claims advanced in favor of electrocution as an immediate
and painless means of execution. See Martin R. Gardner, _
Executions and Indignities - An Eighth Amendment
Assessment of Methods of Inflicting Capital Punishment, 39
Onto St. L.J. 96, 125 (1978); Hillman, An Unnatural Way
to Die, supra, at 278 (noting that “[t]here is no reason
whatsoever to believe that the condemned person does not
2. Citations to “R1.” refer to the April 1997 hearing in Jones
v. Butterworth, 695 So. 2d 679 (Fla. 1997). Citations to “R2.” refer
to the July 1997 hearing in Jones v. State, 701 So. 2d 76 (Fla. 1997).
Citations to “R3.” refer to the July 1999 hearing in Provenzano v.
Moore, __ So. 2d _, 1999 WL 756012 (Fla. Sept. 24, 1997).
4
suffer severe and prolonged pain’’). The reason for the lack
of research is simple: conducting such research on human
beings would amount to torture. See R2. at 422. In fact,
ironically, research on this method of electrocution is not
even conducted on animals, because it is considered
inherently cruel.* See WILLIAM A. SCHABAS, THE DEATH
PENALTY AS CRUEL TREATMENT AND TORTURE 163 (1996).
Because studies of the onset of death and/or unconsciousness
during judicial electrocution cannot be conducted, it is
impossible to establish with any degree of medical or
scientific certainty the truth of the claim that electrocution
provides an instant and painless death.
To the contrary, to the extent that scientific data is
available despite a dearth of direct research, the medical and
scientific literature and the expert testimony in this case
strongly support the proposition that death by electrocution,
even when carried out without technical failure or mistake,’
can be quite the opposite: an unreasonably prolonged and
torturous experience.
3. When animals are euthanized by electrocution, “[i]t is
imperative that [they] be unconscious before being electrocuted”
because “animals do not lose consciousness for 10 to 30 seconds or
more after onset of cardiac fibrillation,” the ultimate cause of death.
1993 Report of the AVMA Panel on Euthanasia, 202 JAVMA 230,
241 (Jan. 15, 1993).
4. Because it is the amici’s position that, “[e]ven when
functioning exactly as it should, the electric chair is a brutal killer,”
Sherwin Nuland, Cruel and Unusual, N.Y. Times, Nov. 9, 1999,
this brief does not address the question of so-called “botched”
electrocutions, in which the electric chair does not function as
intended due to technical failures or human error. Such cases are
well documented, as is the suffering inflicted upon inmates in such
instances.
5
ARGUMENT
I. It Is Undisputed That The Physiological Effects of
Electricity are Extremely Painful
It cannot be disputed that the magnitude of electricity
applied ir a judicial electrocution necessarily affects the body
in ways that would cause excruciating pain under normal
circumstances.° As noted by Dr. Harold Hillman, one of the
few researchers to publish on the topic of the pain caused by
judicial electrocution, medical evidence suggests that judicial
electrocution is quite painful. See Harold Hillman, The
Possible Pain Experienced During Execution By Different
Methods, 22 PERCEPTION 745, 750 (1993) (concluding that
judicial electrocution would be a painful method of
execution, citing evidence that defibrillation is painful,
electric burns are painful, electricity is used for torture, and
a survivor of the electric chair felt pain). A seminal work on
electrical injuries reports that when high-voltage electrical
accidents do not cause instantaneous unconsciousness, the
victim almost always experiences “an agonizing pain
throughout the body.” MacDonald Critchley, Electrical
Injuries, LANCET, Nov. 2, 1935, at 1002, 1003. See also
HANDBOOK OF CLINICAL NEUROLOGY 686 (P.J. Vinken & G.W.
5. Florida employs an automatic five-cycle electrocution
method that lasts for two minutes. See R1. Vol. 8 at 157. Between
2250 and 2350 volts are applied during the first cycle, which lasts
for eight seconds. See R1. Vol. 5 at 133. One thousand volts are
applied during the second cycle, which lasts for twenty-two seconds.
See id. at 134. Both the eight-second “high” cycle and the twenty-
two-second “low” cycle are repeated, followed by a final high cycle
of sixty seconds. See R1. Vol. 8 at 157. Although the system is set
to go through all five cycles automatically, according to the record
below in practice the cycles are always stopped manually four
seconds into the third cycle. See id. at 184-88.
6
Bruyn eds., 1975); Hillman, The Possible Pain Experienced,
supra, at 750. As the current travels through the body, it
causes every muscle to violently and completely contract,
which is an enormously painful experience. See Affidavits
of E.B. Ilgren, M.D. 920 (hereinafter “Ilgren Aff.”) and Dr.
Harold Hillman 412 (hereinafter “Hillman Aff.”), previously
submitted to the Court in Poyner v. Murray, 507 U.S. 981
(1993) (denial of petition for stay of execution).
The contractions can cause the limbs to move violently
against the straps, which may result in dislocations or
fractures. See Hillman, The Possible Pain Experienced,
supra, at 747. See also C.E. HARTFORD, CARE OF THE
CRITICALLY ILL PATIENT 690 (J. Tinker & M. Rapin eds.,
1983). Furthermore, electrical current at the level used in
judicial electrocutions causes the body’s temperature to rise,
heating the body fluids close to the boiling point of water
and causing painful swelling of the internal organs. See Ilgren
Aff. 921; Hillman Aff. 912. In addition, the high-voltage
electrical current applied during a judicial electrocution
causes second- and third-degree burns, which would be
excruciatingly painful. See HANDBOOK OF CLINICAL
NEUROLOGY, supra, at 720; Ilgren Aff. 919. See also CARE OF
THE CRITICALLY ILL PATIENT, supra, at 686. The painful nature
of these burns is evidenced by the fact that patients who
receive such severe burns and survive are regularly treated
with powerful pain reduction medication.® See Hillman
Aff. 411.
6. Indeed, when tissues are damaged, as with an electrical burn,
the sensation of the pain in response to subsequent exposure to the
stimulus can be increased. See PrincIPLES OF NEURAL SCIENCE 386
(Eric R. Kandel et al. eds., 1991). That is, the threshold for pain at
that location is reduced, and the area becomes hyper-sensitive to
pain. See id.
7
As the current travels through the body inflicting the
physical pain described above, it can also cause the sensation
of pain by directly activating the pain-sensing regions of the
brain. Although pain ordinarily is caused by the application
of a pain-causing stimulus to a body part, the sensation of
pain can also be produced by applying a certain quantum of
electrical current to the areas of the brain responsible for
sensation of pain. See R2. at 372. For example, if an electrical
current is applied to the brain cells responsible for sensing
pain in the foot, a person will feel pain in the foot, even if
there is no external stimulation to the foot causing pain.
See R3. at 437. Amputees often experience such “phantom
limb pain” when the area of the brain responsible for
sensing pain in the previously amputated limb is activated.
See id. Because the regions of the brain that control the
sensation of pain are located deep within the brain
and thus are protected frem the source of the current, it is
unlikely that they are instantly destroyed by the initial
application of electricity during a judicial electrocution.
See R3. at 438-39.’ It is more likely that weaker current
reaches the deeper areas of the brain, because electrical
current has a tendency to spread out to fill the available space,
resulting in current dissipation. See CARE OF THE CRITICALLY
ILL PATIENT, supra, at 682.° If only weaker current does reach
7. In addition to the fact that these regions are removed from
the source of the current, they are also protected by the skull, which
resists the flow of the electrical current. See infra pp. 9-10 for a
discussion of this point.
8. This concept is known as current density. A given amount
of current concentrated in a small area has a higher density than the
same amount of current concentrated in a larger area. See R3. at
560. As the State’s expert conceded, the spreading out of current
could be a significant factor in assessing the effect of electrical
current on the body. See R2. at 1028.
8
those areas, the pain-sensing regions of the brain are likely
activated, see R2. at 379, 406, which, in and of itself, would
cause the inmate to experience intense pain.
It is important to note that an absence of outward signs
of pain from an inmate during a judicial electrocution is
hardly evidence that the inmate is not experiencing severe
pain. The more likely explanation for a lack of expression is
that the manifestations of pain are hidden by the nature of
the procedure. See Hillman, An Unnatural Way to Die, supra,
at 278. For one thing, the inmate is strapped to the chair at
the arms, legs and chest, and a mask covers his head. Further,
though it was once believed that a failure to move indicated
a lack of pain, it is now known that such a failure could be
due to the fact that the muscles are contracted maximally,
preventing the inmate from expressing or conveying that
pain. See Hillman Aff. 412. The muscle contraction itself is
excruciatingly painful, and is added to the pain of the burning
flesh and the heating of the organs as described above. See
id. The end result is that the inmate “feels himself being
burnt to death while he is conscious of his inability to
breathe.” Hillman, An Unnatural Way to Die, supra, at 278.
II. There Is A Substantial Risk That Inmates Remain
Conscious For Some Period Of Time During A
Judicial Electrocution
Though it is undisputed that severe burning of the skin,
massive contraction of the muscles, and rapid heating of the
internal fluids could result in great pain under normal
circumstances, the question at the core of the present debate
is whether the inmate being executed by electrocution is
conscious, or sufficiently conscious, so as to experience that
pain. The precise instant at which consciousness is lost when
9
electricity is applied to the human body is necessarily on the
edge of the unknowable. See Hillman Aff. 412 (stating that
“[a]lthough it is believed by proponents of death by
electrocution that the person being electrocuted may lose
consciousness and the sensation of pain as soon as
electrocution begins, there is no scientific evidence
whatsoever to support this belief’); R2. at 655, 743.
However, there is no evidence that the magnitude of
electricity applied during a judicial electrocution necessarily
causes immediate brain death, such that pain and suffering
are not experienced. See Hillman, An Unnatural Way to Die,
supra, at 278; Ilgren Aff. 423; Hiliman Aff. 910; R2. at 677.
During a judicial electrocution it is likely that
the magnitude of current that reaches the deep recesses of
the brain where the centers of consciousness are located is
not sufficient to cause instantaneous unconsciousness.
See R2. at 385. Electricity tends to follow the path of least
resistance, see R3. at 485, and there are several layers of
highly resistant material between the electrode and the brain.
Specifically, between the head electrode and the brain,
resistance will be encountered in the skin, the tissue, and
the skull. The human skull is likely the most resistant
substance in the body, see John L. Hunt et al., The
Pathophysiology of Acute Electrical Injuries, 16 J. TRAUMA
335, 339 (1976) (“Bone has the greatest resistance to current
flow of any tissue in the body....”), and can effectively
insulate the brain from current, see V. Garcia-Sanchez & P.
Gomez Morell, Electric Burns: High- and Low-Tension
Injuries, 25 Burns 357, 358 (Dec. 1998); HARRISON’S
PRINCIPLES OF INTERNAL MEDICINE 859 (Eugene Braunwald et
al. eds., 11th ed. 1987) (noting that bone offers relatively
high resistance); Ilgren Aff. 915. Studies have shown that
10
the amount of electrical current that actually crosses the skull
is 1/20" of the initial current.? See Hillman Aff. 99; R2. at
395. The current that does ultimately penetrate the skull will
then encounter the highly conductive cerebral spinal fluid.
See Critchley, Electrical Injuries, supra, at 1002 (noting that
the best conductive material in the body is cerebral spinal
fluid); Garcia-Sanchez, supra, at 358; PRINCIPLES OF INTERNAL
MEDICINE, supra, at 859; R2. at 399. The presence of such
fluid will likely divert the current around the brain and into
the spinal canal. See R2. at 399. That significantly smaller
amounts of current reach the brain is supported by
observations that “[t]he burns appearing inside the scalp are
minute compared with those on the skin’s surface.” Hillman
Aff. 99. See also R2. at 922 (“[Medina’s] scalp exhibited
the central area of charring .. . but the bone itself was not
burned through. In fact, it was not even partially burned.”).
As a result, it is more likely than not that inmates are not
rendered immediately unconscious, see R2. at 674-76, 749,
and, in fact, consciousness is likely to last for a period of
time, see R2. at 438. Even Nikola Tesla, the inventor of
alternating current, believed that death by judicial
electrocution is not instantaneous, stating that alternating
current would spread through the body in a manner that could
preserve vital organs, “with the result the victim may retain
consciousness and experience great pain.” IAN Gray & Moira
STANLEY, A PUNISHMENT IN SEARCH OF A CRIME 32 (1989).
As no studies have ever measured the brain’s electrical
activity during an electrocution, see R2. at 677, accidental
electrocutions and lightning strikes provide the closest
9. The studies have measured movement of current from the
inside of the skull to the outside. See R3. at 447. However, there is
no reason to believe that the movement of current from the outside
of the skull to the inside would be different. See id.
il
analogue. Although loss of consciousness does occur after
many high-voltage electrical accidents, the medical and
scientific literature reports that loss of consciousness is by
no means a certainty. Various studies have shown that
anywhere from 40% to 55% of patients studied remained
conscious after high-voltage accidents with electricity
ranging from 3000 to 130,000 volts, a range far exceeding
the voltage used in a judicial electrocution. See Nisha
Chibber Chandra et al., Clinical Predictors of Myocardial
Damage After High Voltage Electrical Injury, 18 CRITICAL
Care Mep. 293, 295 (1990) (explaining that nine out of
thirteen patients remained conscious after contact with
voltage ranging from 3000 to 130,000 volts); Baiba J. Grube
et al., Neurologic Consequences of Electrical Burns, 30 J.
TRAUMA 254, 255 (Mar. 1990) (stating that 55% of patients
studied remained conscious after high-voltage accident);
Joseph Still et al., Electrocution Due to Contact of Industrial
Equipment with Power Lines, 23 Burns 573, 573 (1997)
(stating that seven patients survived and remained conscious
when industrial equipment they were touching contacted
high-voltage power lines).
If consciousness is retained for some period of time
during a judicial electrocution, the mechanisms of death in
such cases indicate that consciousness — and thus the
sensation of pain — can be more prolonged than is argued
by the procedure’s advocates. Asphyxiation and ventricular
fibrillation are believed to be the primary mechanisms of
death in a judicial electrocution. See Hillman Aff. 413
(‘Death results from the cessation of respiration and the heart
as well as a cessation of brain functioning.”); Hillman, The
Possible Pain Experienced, supra, at 748 (“Death from
electrocution could be due to asphyxia caused by paralysis
of respiration, and to ventricular fibrillation.”). Cf A. Sances,
12
Jr. et al., Electrical Injuries, 149 SuRGERY, GYNECOLOGY &
OssTETRICs 97, 99 (1979). Laryngeal asphyxia results when
the muscles of the larynx contract and close off the airway
to the lungs. See Ilgren Aff. 24. This mechanism of death
is similar to death by strangulation, with death ultimately
taking several minutes. See id. General asphyxia results when
the muscles of the chest contract and prevent the lungs from
being able to expand to take in air. See id. Once the oxygen
supply is cut off in this way, death may take up to several
minutes to occur. See id. Finally, death by ventricular
fibrillation results when the heart ceases functioning,'° see
id., and an individual can remain conscious for upwards of
twenty to thirty seconds after its onset, see Hillman, The
Possible Pain Experienced, supra, at 748 (“[S]everal seconds
or minutes could elapse during which the condemned person
could be conscious.” (citations omitted)); R2. at 96, 438.
10. It is important to note, though, that while electrical current
can fibrillate the heart and cease blood flow, high levels of electrical
current can also have the opposite effect. See Thomas N. James et
al., Cardiac Abnormalities Demonstrated Postmortem in Four Cases
of Accidental Electrocution and Their Potential Significance
Relative to Nonfatal Electrical Injuries of the Heart, 120 AMERICAN
Heart J. 143 (July 1990) (“Paradoxically, the effects of electrical
current upon the heart can be lifesaving as well as the cause of death,
and the difference in the end result depends upon relatively small
differences of circumstances.”). This is the theory behind an
emergency room defibrillator. If the heart were in fibrillation, then
the application of anywhere between 5 and 15 amps of current could
cause defibrillation and “restart” the heart with a normal heartbeat.
See R3. at 594. See also R3. at 681 (stating that there is an “upper
limit of vulnerability” whereby an electric shock exceeding a certain
threshold will not cause fibrillation). In fact, one scientist reports
that judicial electrocutions have shown that alternating current of 5
to 8 amps can pass through the body without causing permanent
arrest of the heart. See Bernard M. Patten, Lightning and Electrical
Injuries, 10 NEUROLOGY OF TRAUMA 1047, 1054 (Nov. 1992).
— ; ——
Th Aa ae i ESE oe eae
2h TRE ome
13
The evidence suggests that the contention that
unconsciousness is a/ways instantaneous when an inmate is
electrocuted is wrong. To being with as the State’s own expert
conceded below, consciousness itself can be difficult to
determine by mere observation. See R2. at 1045. This fact has
long been recognized. For example, when the trial court in
Fierro v. Gomez, 865 F. Supp. 1387 (N.D. Cal. 1994), aff'd, 77
F.3d 301 (9th Cir.), vacated, 519 U.S. 918 (1996), concluded
that execution by use of the gas chamber was cruel and unusual,
it commented extensively on difficulties encountered in the
observation of consciousness and pain in individuals. The court
stated that neither pain nor consciousness is easy to assess. See
id. at 1400. It further noted that even a physician could not be
certain that a person is unconscious “unless that person is
completely flaccid, with no body movements,” id., and that even
if one displayed those characteristics of unconsciousness, there
could still be a response to a painful stimulus, see id. at 1400
n.9. Even when a person is conscious, the court concluded, it
can be difficult to assess the presence and the extent of pain.
See id. at 1400. Thus, in a judicial eletrocution, while the
prisoner may appear unconscious because he may be paralyzed
by the current’s effects on the muscles and restrained by the
straps and mask, this appearance does not remove the risk that
he is conscious and sentient for some period of time. See
Hillman, The Possible Pain Experienced, supra, at 751;
Hillman, An Unnatural Way to Die, supra, at 278.
The conclusion that unconsciousness occurs
instantaneously depends upon the validity of the assumption
that the electrical current applied in a judicial electrocution
causes immediate and permanent depolarization of the brain,
which deprives the brain cells of the ability to return to their
polarized state, thereby ultimately leading to death.'’ While it
11. The brain consists of billions of nerve cells which have a
positive electrical charge on the outside, and a negative electrical
(Cont'd)
14
is true that intense and prolonged depolarization can cause
cell death, see R2. at 425, “[it is] extremely unlikely that
[the initial current surge in a judicial electrocution] would
permanently and instantly depolarize the brain,” R2. at 376.
See also R2. at 674 (“With a degree of medical certainty, I
do not believe the brain is instantly, simultaneously
depolarized as the current is applied.”). If the brain instantly
and permanently depolarized, then the State “should be able
to give the current for less than one second and be done with
it.” R2. at 710-11. However, Florida procedure calls for a
five-cycle method that can last for as long as two minutes.
See R1. V8. at 157. Such a procedure hardly seems consistent
with, and indeed contradicts, the assumption that the brain
is instantly, permanently, and fatally depolarized by the
initial application of electrical current.'”
(Cont'd)
charge on the inside. See R3. at 427. When the outside of the cell
becomes negatively charged, depolarization, a normal brain function
necessary for the perception of external stimuli, occurs. See R3. at
427; R2. at 658. After depolarization, the cell gradually returns to
its normal state of external positive charge and internal negative
charge (i.e., it becomes repolarized). Depolarization can be caused
by either the direct application of electricity to the brain, or by the
release of a chemical from peripheral nerves, like those in the hand,
when a sensation is encountered. See R3. at 427. In its normal
occurrence in daily life, the ultimate result of depolarization is the
firing of an impulse known as an action potential, which is necessary
to experience everyday sensations such as light, sound, and pain.
See R2. at 372.
12. The fact that some states have subjected inmates to a second
round of electric cycles when the first round did not cause death is
also evidence that there is no certainty that death is instantaneous.
See R2. at 745.
15
Despite an attempt by the State to control the path of current
in a Florida electrocution by placing electrodes on the head and
leg, is that the path of electrical current cannot be controlled
once it enters the body, and so a particular amount of electrical
current cannot be guaranteed to reach and incapacitate a
particular vital organ. See R2. at 558-60. According to the
inventor of alternating current, the result of a lack of control of
the current path when conducting a judicial electrocution is that
“(t]he alternating current used ... does not pass in a direct
course, despite all the precautions taken. The current flows along
a restricted path into the body and destroys all tissues confronted
in this path... . In the meantime the vital organs may be
preserved ....” NEGLEY K. TEETERS, HANG BY THE NECK 448
(1967) (quoting Nikola Tesla) (internal quotation marks
omitted).
One indication that the brain continues to function after
the application of electrical current is that the heart has been
shown to continue functioning. Like the brain, the heart
functions on the basis of electrical impulses. See James
et al., supra, at 148 (stating that the heart “has among its special
characteristic properties the production and distribution of
electrical currents”); R2. at 383. Though it is true that the heart
can beat despite a lack of brain function, several experts have
noted that the continued activity of the heart after the application
of the current in a judicial electrocution strongly suggests that
the brain could continue to function, given the extensive
protection provided to the brain by the skull and cerebral-spinal
fluid, and the lesser protection available to the heart. See R3. at
433-34. Because of the extensive protection available to the
brain by virtue of the skull, there is no reason to believe that the
brain receives more electrical current than the heart. See R3. at
434. According to one expert, “[i]t would be possible [to exhibit
an agonal pulse even though the brain has been totally destroyed]
16
...but...ifthat much current reaches the brain, there should
be sufficient current to reach the heart to cause fibrillation
of the heart or cardiac standstill. There’s an incompatibility
here which is not explained by the electrical engineers.” R2.
at 216. See also R2. at 383-84 (“If judicial execution does
not terminate the beating of the heart immediately or
throughout the minute of the current application, then there
is no reason to think that the same current will stop the
electric chemical activity of the brain which also relies on
impulse activity. ...”). Thus, the pulses palpated after the
electrocutions of Medina and Tafero, which indicate that their
hearts were still capable of electrical activity, suggest that
their brains may still have been functioning. See R3. at 433.
This, in turn, obviously suggests that consciousness persists
during a judicial electrocution.
Industrial accidents and lightning strikes provide
evidence that it cannot be concluded with scientific or
medical certainty that the brain is instantly and permanently
depolarized during a judicial electrocution. Such accidents
can involve voltages in excess of ten thousand volts. One
expert who treated such patients testified that their brains
and hearts were not instantly destroyed, though they did
sustain massive and severe burns. See R2. at 679. In addition,
the medical and scientific literature documents the survival
of high-voltage electrical shock victims. In one study of ten
patients who were either struck by lightning (which reaches
one million volts) or who received electric shocks ranging
from 16,000 to 60,000 volts, all the victims survived. See
J.P. Guinard et al., Myocardial Injury After Electrical Burns:
Short and Long Term Study, 21 SCAND. J. PLAST. RECONSTR.
SurG. 301, 302 (1987). Another study reports that 70% of
lightning strike victims survived, despite amperage ranging
from 25,000 to 500,000 amps and temperatures exceeding
5000 degrees Fahrenheit. See Bernard M. Patten, Lightning
17
and Electrical Injuries, 10 NEUROLOGY OF TRAUMA 1047, 1048
(Nov. 1992). Yet another study notes that less than 25% of
victims die from lightning strikes each year. See Theodore
Bernstein, Electrical Injury: Electrical Engineer's
Perspective and an Historical Review, ANNALS OF NEW YORK
ACADEMY OF SCIENCES, May 1994, at 1, 8. These examples
support a conclusion that brain function is not invariably
instantaneously destroyed by electrocution and that, to the
contrary, in some if not all cases brain function — and
therefore perhaps consciousness — also persists for some
period after the initial application of electricity.
Further, not only is it possible for people to remain
conscious during a judicial electrocution, it is also possible
that the perception of time during an electric shock is altered,
such that a few seconds feels like several minutes. See
HANDBOOK OF CLINICAL NEUROLOGY, supra, at 698 (“There
are numerous references in the literature to the apparent
slowing down of time under the influence of the [electrical]
current.”); MacDonald Critchley, Neurological Effects of
Lightning and of Electricity, Lancet, Jan. 13, 1934, at 68,
70 (explaining that “[a]s with most protracted painful
experiences, the sufferer usually feels that the passage of
time is inordinately slow, and electrical injuries supply one
of the most vivid examples of the prolongation of time”).
Furthermore, one must consider that “reaction times — which
include the time that motor signals take to go from the brain
to the periphery — are maximally up to 1 [second], whereas
the blood and oxygen supply last several seconds. Thus there
will always be a finite, if variable, number of seconds during
which a condemned person feels before he or she becomes
unconscious.” Hillman, The Possible Pain Experienced,
supra, at 750.
18
In sum, based on the scientific and medical evidence, a
substantial risk exists that the inmate will retain
consciousness for some period of time after the initial
application of electricity, during which time the inmate will
experience intense pain.
CONCLUSION
Based on the evidence discussed above, a substantial
risk exists that death and unconsciousness will not be
immediate when a judicial electrocution is performed, that
the inmate will retain consciousness for some period of time
and will experience for that period the intense pain caused
by exposure to a massive electrical charge. It is the amici
curiae’s position that this risk is unreasonable and
unacceptable and renders electrocution a brutal and inhumane
procedure that should be banned as unconstitutional by this
Court.
Respectfully submitted,
MARTIN J. NEWHOUSE
on Counsel of Record
( f/ CrysTAL D. TALLEY
ae KIMBERLY L. PEDERSEN
ELAINE J. GOLDENBERG
Ropes & GRAY
One International Place
Boston, Massachusetts 02110
(617) 951-7000
Attorneys for Amici Curiae
Physicians for Human Rights, et al.
Dated: December 20, 1999
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