関: radiation injury、radiation sickness

WordNet

the spontaneous emission of a stream of particles or electromagnetic rays in nuclear decay (同)radioactivity
energy that is radiated or transmitted in the form of rays or waves or particles
the act of spreading outward from a central source
a radial arrangement of nerve fibers connecting different parts of the brain
the spread of a group of organisms into new habitats
a pattern of symptoms indicative of some disease
a complex of concurrent things; "every word has a syndrome of meanings"

PrepTutorEJDIC

〈U〉(光・熱・放射能などの)発散,放射 / 〈C〉放射物;放射線;輻射(ふくしゃ)熱 / 〈C〉(喜び・幸福感などの)発散《+『of』+『名』》 / =radioactivity
(疾患の徴候となる一群の)症徴候,症候群 / (事件・社会的状態などのパターンを示す)徴候形態

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出典(authority):フリー百科事典『ウィキペディア（Wikipedia）』「2015/07/20 21:17:27」(JST)

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Acute radiation syndrome (ARS), also known as radiation poisoning, radiation sickness or radiation toxicity, is a collection of health effects which present within 24 hours of exposure to high amounts of ionizing radiation. The radiation causes cellular degradation due to damage to DNA and other key molecular structures within the cells in various tissues; this destruction, particularly as it affects ability of cells to divide normally, in turn causes the symptoms. The symptoms can begin within one or two hours and may last for several months.^[1]^[2] The terms refer to acute medical problems rather than ones that develop after a prolonged period.^[3]^[4]^[5]

The onset and type of symptoms depends on the radiation exposure. Relatively smaller doses result in gastrointestinal effects, such as nausea and vomiting, and symptoms related to falling blood counts, and predisposition to infection and bleeding. Relatively larger doses can result in neurological effects and rapid death. Treatment of acute radiation syndrome is generally supportive with blood transfusions and antibiotics, with some more aggressive treatments, such as bone marrow transfusions, being required in extreme cases.^[1]

Similar symptoms may appear months to years after exposure as chronic radiation syndrome when the dose rate is too low to cause the acute form.^[6] Radiation exposure can also increase the probability of developing some other diseases, mainly different types of cancers. These diseases are sometimes referred to as radiation sickness, but they are never included in the term acute radiation syndrome.

1 Signs and symptoms
- 1.1 Skin changes
- 1.2 Cancer
2 Cause
- 2.1 Spaceflight
3 Pathophysiology
4 Diagnosis
5 Prevention
- 5.1 Distance
- 5.2 Time
- 5.3 Shielding
- 5.4 Reduction of incorporation into the human body
- 5.5 Fractionation of dose
6 Management
- 6.1 Antimicrobials
7 History
- 7.1 Notable incidents
8 Other animals
9 See also
10 References
11 Further reading
12 External links

Signs and symptoms

Classically acute radiation syndrome is divided into three main presentations: hematopoietic, gastrointestinal and neurological/vascular. These symptoms may or may not be preceded by a prodrome.^[1] The speed of onset of symptoms is related to radiation exposure, with greater doses resulting in a shorter delay in symptom onset.^[1] These presentations presume whole-body exposure and many of them are markers which are not valid if the entire body has not been exposed. Each syndrome requires that the tissue showing the syndrome itself be exposed. The hematopoietic syndrome requires exposure of the areas of bone marrow actively forming blood elements (i.e., the pelvis and sternum in adults). The neurovascular symptoms require exposure of the brain. The gastrointestinal syndrome is not seen if the stomach and intestines are not exposed to radiation.

Hematopoietic. This syndrome is marked by a drop in the number of blood cells, called aplastic anemia. This may result in infections due to a low amount of white blood cells, bleeding due to a lack of platelets, and anemia due to few red blood cells in the circulation.^[1] These changes can be detected by blood tests after receiving a whole-body acute dose as low as 0.25 Gy, though they might never be felt by the patient if the dose is below 1 Gy. Conventional trauma and burns resulting from a bomb blast are complicated by the poor wound healing caused by hematopoietic syndrome, increasing mortality.
Gastrointestinal. This syndrome often follows absorbed doses of 6–30 Gy (600–3000 rad).^[1] The signs and symptoms of this form of radiation injury include nausea, vomiting, loss of appetite, and abdominal pain.^[7] Vomiting in this time-frame is a marker for whole body exposures that are in the fatal range above 4 Gy. Without exotic treatment such as bone marrow transplant, death with this dose is common.^[1] The death is generally more due to infection than gastrointestinal dysfunction.
Neurovascular. This syndrome typically occurs at absorbed doses greater than 30 Gy (3000 rad), though it may occur at 10 Gy (1000 rad).^[1] It presents with neurological symptoms such as dizziness, headache, or decreased level of consciousness, occurring within minutes to a few hours, and with an absence of vomiting. It is invariably fatal.^[1]

The prodrome (early symptoms) of ARS typically includes nausea and vomiting, headaches, fatigue, fever and short period of skin reddening.^[1] These symptoms may occur at radiation doses as low as 35 rad (0.35 Gy). These symptoms are common to many illnesses and may not, by themselves, indicate acute radiation sickness.^[1]

Phase	Symptom	Whole-body absorbed dose (Gy)
Phase	Symptom	1–2 Gy	2–6 Gy	6–8 Gy	8–30 Gy	Greater Than 30 Gy
Immediate	Nausea and vomiting	5–50%	50–100%	75–100%	90–100%	100%
	Time of onset	2–6 h	1–2 h	10–60 min	< 10 min	Minutes
	Duration	< 24 h	24–48 h	< 48 h	< 48 h	N/A (patients die in < 48 h)
	Diarrhea	None	None to mild (< 10%)	Heavy (> 10%)	Heavy (> 95%)	Heavy (100%)
	Time of onset	—	3–8 h	1–3 h	< 1 h	< 1 h
	Headache	Slight	Mild to moderate (50%)	Moderate (80%)	Severe (80–90%)	Severe (100%)
	Time of onset	—	4–24 h	3–4 h	1–2 h	< 1 h
	Fever	None	Moderate increase (10-100%)	Moderate to severe (100%)	Severe (100%)	Severe (100%)
	Time of onset	—	1–3 h	< 1 h	< 1 h	< 1 h
	CNS function	No impairment	Cognitive impairment 6–20 h	Cognitive impairment > 24 h	Rapid incapacitation	Seizures, Tremor, Ataxia, Lethargy
Latent period		28–31 days	7–28 days	< 7 days	none	none
Illness		Mild to moderate Leukopenia Fatigue Weakness	Moderate to severe Leukopenia Purpura Hemorrhage Infections Epilation after 3 Gy	Severe leukopenia High fever Diarrhea Vomiting Dizziness and disorientation Hypotension Electrolyte disturbance	Nausea Vomiting Severe diarrhea High fever Electrolyte disturbance Shock	N/A (patients die in < 48h)
Mortality	Without care	0–5%	5–95%	95–100%	100%	100%
	With care	0–5%	5–50%	50–100%	100%	100%
	Death	6–8 weeks	4–6 weeks	2–4 weeks	2 days–2 weeks	1–2 days
Source:^[8]

Skin changes

In a nuclear explosion, ARS may be accompanied by flash burns, as pictured above, due to thermal radiation

Cutaneous radiation syndrome (CRS) refers to the skin symptoms of radiation exposure.^[5] Within a few hours after irradiation, a transient and inconsistent redness (associated with itching) can occur. Then, a latent phase may occur and last from a few days up to several weeks, when intense reddening, blistering, and ulceration of the irradiated site are visible. In most cases, healing occurs by regenerative means; however, very large skin doses can cause permanent hair loss, damaged sebaceous and sweat glands, atrophy, fibrosis (mostly Keloids), decreased or increased skin pigmentation, and ulceration or necrosis of the exposed tissue.^[5] Notably, as seen at Chernobyl, when skin is irradiated with high energy beta particles, moist desquamation and similar early effects can heal, only to be followed by the collapse of the dermal vascular system after two months, resulting in the loss of the full thickness of the exposed skin.^[9] This effect had been demonstrated previously with pig skin using high energy beta sources at the Churchill Hospital Research Institute, in Oxford.^[10]

Cancer

According to the linear no-threshold model, any exposure to ionizing radiation, even at doses too low to produce any symptoms of radiation sickness, can induce cancer due to cellular and genetic damage. Under the assumption, survivors of acute radiation syndrome face an increased risk developing cancer later in life. The probability of developing cancer is a linear function with respect to the effective radiation dose. In radiation-induced cancer, the speed at which the condition advances, the prognosis, the degree of pain, and every other feature of the disease are not believed to be functions of the radiation dosage.

However, some studies contradict the linear no-threshold model. These studies indicate that some low levels of radiation do not increase cancer risk at all, and that there may exist a threshold dosage of ionizing radiation below which exposure should be considered safe. Nonetheless the 'no safe amount' assumption is the basis of US and most national regulatory policies regarding "man-made" sources of radiation.

Cause

Both dose and dose rate contribute to the severity of acute radiation syndrome

Radiation sickness is caused by exposure to a large dose of ionizing radiation (> ~0.1 Gy) over a short period of time. (> ~0.1 Gy/h) This might be the result of a nuclear explosion, a criticality accident, a radiotherapy accident as in Therac-25, a solar flare during interplanetary travel, escape of radioactive waste as in the 1987 Goiânia accident, human error in a nuclear reactor, or other possibilities. Acute radiation sickness due to ingestion of radioactive material is possible, but rare; examples include the 1987 contamination of Leide das Neves Ferreira and the 2006 poisoning of Alexander Litvinenko.

Comparison of Radiation Doses - includes the amount detected on the trip from Earth to Mars by the RAD on the MSL (2011 - 2013).^[11]^[12]^[13]^[14]

Alpha and beta radiation have low penetrating power and are unlikely to affect vital internal organs from outside the body. Any type of ionizing radiation can cause burns, but alpha and beta radiation can only do so if radioactive contamination or nuclear fallout is deposited on the individual's skin or clothing. Gamma and neutron radiation can travel much further distances and penetrate the body easily, so whole-body irradiation generally causes ARS before skin effects are evident. Local gamma irradiation can cause skin effects without any sickness. In the early twentieth century, radiographers would commonly calibrate their machines by irradiating their own hand and measuring the time to onset of erythema.^[15]

Spaceflight

During spaceflight, particularly flights beyond low Earth orbit, astronauts are exposed to both galactic cosmic radiation (GCR) and solar particle event (SPE) radiation. Evidence indicates past SPE radiation levels which would have been lethal for unprotected astronauts.^[16] GCR levels which might lead to acute radiation poisoning are less well understood.^[17]

Pathophysiology

The most commonly used predictor of acute radiation symptoms is the whole-body absorbed dose. Several related quantities, such as the equivalent dose, effective dose, and committed dose, are used to gauge long-term stochastic biological effects such as cancer incidence, but they are not designed to evaluate acute radiation syndrome.^[18] To help avoid confusion between these quantities, absorbed dose is measured in units of gray (Gy) or rad, while the others are measured in sievert (Sv) or rem. 1 rad = 0.01 Gy^[19]

In most of the acute exposure scenarios that lead to radiation sickness, the bulk of the radiation is external whole-body gamma, in which case the absorbed, equivalent and effective doses are all equal. There are exceptions, such as the Therac-25 accidents and the 1958 Cecil Kelley criticality accident, where the absorbed doses in Gy or rad are the only useful quantities.

Radiotherapy treatments are typically prescribed in terms of the local absorbed dose, which might be 60 Gy or higher. The dose is fractionated (about 2 Gy per day for curative treatment), which allows for the normal tissues to undergo repair, allowing it to tolerate a higher dose than would otherwise be expected. The dose to the targeted tissue mass must be averaged over the entire body mass, most of which receives negligible radiation, to arrive at a whole-body absorbed dose that can be compared to the table above.

Diagnosis

Diagnosis is typically made based on a history of significant radiation exposure and suitable clinical findings.^[1] An absolute lymphocyte count can give a rough estimate of radiation exposure.^[1] Time from exposure to vomiting can also give estimates of exposure levels if they are less than 1000 rad.^[1]

Prevention

The best prevention for radiation sickness is to minimize the exposure dose or to reduce the dose rate.

Distance

Increasing distance from the radiation source reduces the dose according to the inverse-square law for a point source. Distance can sometimes be effectively increased by means as simple as handling a source with forceps rather than fingers. This could reduce erythema to the fingers, but the extra few centimeters distance from the body will give little protection from acute radiation syndrome.

Time

The longer that humans are subjected to radiation the larger the dose will be. The advice in the nuclear war manual entitled "Nuclear War Survival Skills" published by Cresson Kearny in the U.S. was that if one needed to leave the shelter then this should be done as rapidly as possible to minimize exposure.

In chapter 12 he states that "Quickly putting or dumping wastes outside is not hazardous once fallout is no longer being deposited. For example, assume the shelter is in an area of heavy fallout and the dose rate outside is 400 roentgen (R) per hour] enough to give a potentially fatal dose in about an hour to a person exposed in the open. If a person needs to be exposed for only 10 seconds to dump a bucket, in this 1/360 of an hour he will receive a dose of only about 1 R. Under war conditions, an additional 1-R dose is of little concern."

In peacetime, radiation workers are taught to work as quickly as possible when performing a task which exposes them to radiation. For instance, the recovery of a lost radiography source should be done as quickly as possible.

Shielding

Matter attenuates radiation in most cases, so placing any mass (e.g., lead, dirt, sandbags, vehicles) between humans and the source will reduce the radiation dose. This is not always the case, however; care should be taken when constructing shielding for a specific purpose. For example, although high atomic number materials are very effective in shielding photons, using them to shield beta particles may cause higher radiation exposure due to the production of bremsstrahlung x-rays, and hence low atomic number materials are recommended. Also, using material with a high neutron activation cross section to shield neutrons will result in the shielding material itself becoming radioactive and hence more dangerous than if it were not present.

Reduction of incorporation into the human body

Where radioactive contamination is present, a gas mask, dust mask, or good hygiene practices may offer protection, depending on the nature of the contaminant. Potassium iodide (KI) tablets can reduce the risk of cancer in some situations due to slower uptake of ambient radioiodine. Although this doesn't protect any organ other than the thyroid gland, their effectiveness is still highly dependent on the time of ingestion which would protect the gland for the duration of a twenty-four hour period. They do not prevent acute radiation syndrome as they provide no shielding from other environmental radionuclides.^[20]

Fractionation of dose

If an intentional dose is broken up into a number of smaller doses, with time allowed for recovery between irradiations, the same total dose causes less cell death. Even without interruptions, a reduction in dose rate below 0.1 Gy/h also tends to reduce cell death.^[18] This technique is routinely used in radiotherapy.

The human body contains many types of cells and a human can be killed by the loss of a single type of cells in a vital organ. For many short term radiation deaths (3 days to 30 days), the loss of two important types of cells that are constantly being regenerated causes death. The loss of cells forming blood cells (bone marrow) and the cells in the digestive system (microvilli which form part of the wall of the intestines) is fatal.

Management

Effect of medical care on acute radiation syndrome

Treatment is supportive with the use of antibiotics, blood products, colony stimulating factors, and stem cell transplant as clinically indicated.^[1] Symptomatic measures may also be employed.^[1]

Antimicrobials

There is a direct relationship between the degree of the neutropenia that emerges after exposure to radiation and the increased risk of developing infection. Since there are no controlled studies of therapeutic intervention in humans, most of the current recommendations are based on animal research.

The treatment of established or suspected infection following exposure to radiation (characterized by neutropenia and fever) is similar to the one used for other febrile neutropenic patients. However, important differences between the two conditions exist. Individuals that develop neutropenia after exposure to radiation are also susceptible to irradiation damage in other tissues, such as the gastrointestinal tract, lungs and central nervous system. These patients may require therapeutic interventions not needed in other types of neutropenic patients. The response of irradiated animals to antimicrobial therapy can be unpredictable, as was evident in experimental studies where metronidazole^[21] and pefloxacin^[22] therapies were detrimental.

Antimicrobials that reduce the number of the strict anaerobic component of the gut flora (i.e., metronidazole) generally should not be given because they may enhance systemic infection by aerobic or facultative bacteria, thus facilitating mortality after irradiation.^[23]

An empirical regimen of antimicrobials should be chosen based on the pattern of bacterial susceptibility and nosocomial infections in the affected area and medical center and the degree of neutropenia. Broad-spectrum empirical therapy (see below for choices) with high doses of one or more antibiotics should be initiated at the onset of fever. These antimicrobials should be directed at the eradication of Gram-negative aerobic bacilli ( i.e., Enterobacteriace, Pseudomonas ) that account for more than three quarters of the isolates causing sepsis. Because aerobic and facultative Gram-positive bacteria (mostly alpha-hemolytic streptococci) cause sepsis in about a quarter of the victims, coverage for these organisms may also be needed.^[24]

A standardized management plane of febrile, neutropenic patients must be devised in each institution or agency. Empirical regimens must contain antibiotics broadly active against Gram-negative aerobic bacteria (quinolones: i.e., ciprofloxacin, levofloxacin, a third- or fourth-generation cephalosporin with pseudomonal coverage: e.g., cefepime, ceftazidime, or an aminoglycoside: i.e. gentamicin, amikacin).^[25]

History

Acute effects of ionizing radiation were first observed when Wilhelm Röntgen intentionally subjected his fingers to X-rays in 1895. He published his observations concerning the burns that developed, though he misattributed them to ozone, a free radical produced in air by X-rays. Other free radicals produced within the body are now understood to be more important. His injuries healed later.

The Radium Girls were female factory workers who contracted radiation poisoning from painting watch dials with self-luminous paint at the United States Radium factory in Orange, New Jersey, around 1917.

Ingestion of radioactive materials caused many radiation-induced cancers in the 1930s, but no one was exposed to high enough doses at high enough rates to bring on acute radiation syndrome. Marie Curie died of aplastic anemia caused by radiation, a possible early incident of acute radiation syndrome.

The atomic bombings of Hiroshima and Nagasaki resulted in high acute doses of radiation to a large number of Japanese, allowing for greater insight into its symptoms and dangers. Red Cross Hospital Surgeon, Terufumi Sasaki led intensive research into the syndrome in the weeks and months following the Hiroshima bombings. Dr Sasaki and his team were able to monitor the effects of radiation in patients of varying proximities to the blast itself, leading to the establishment of three recorded stages of the syndrome. Within 25–30 days of the explosion, the Red Cross surgeon noticed a sharp drop in white blood cell count and established this drop, along with symptoms of fever, as prognostic standards for Acute Radiation Syndrome.^[26] Actress Midori Naka, who was present during the atomic bombing of Hiroshima, was the first incident of radiation poisoning to be extensively studied. Her death on August 24, 1945 was the first death ever to be officially certified as a result of acute radiation syndrome (or "Atomic bomb disease").

Notable incidents

There are two major databases that track radiation accidents: The American ORISE REAC/TS and the European IRSN ACCIRAD. REAC/TS shows 417 accidents occurring between 1944 and 2000, causing about 3000 cases of acute radiation syndrome, of which 127 were fatal.^[27] ACCIRAD lists 580 accidents with 180 ARS fatalities for an almost identical period.^[28] The two deliberate bombings are not included in either database, nor are any possible radiation-induced cancers from low doses. The detailed accounting is difficult because of confounding factors. ARS may be accompanied by conventional injuries such as steam burns, or may occur in someone with a pre-existing condition undergoing radiotherapy. There may be multiple causes for death, and the contribution from radiation may be unclear. Some documents may incorrectly refer to radiation-induced cancers as radiation poisoning, or may count all overexposed individuals as survivors without mentioning if they had any symptoms of ARS. The table below attempts to catalog some cases of ARS. Many of these incidents involved additional fatalities from other causes, such as cancer, which are excluded from this table.

Year	Type	Incident	ARS fatalities	ARS survivors	Location
1945	criticality	Harry K. Daghlian	1	0	Los Alamos, New Mexico, United States
1946	criticality	Pajarito accident (Louis Slotin)	1	2	Los Alamos, New Mexico, United States
1957	alleged crime	Nikolay Khokhlov assassination attempt^[29]	0	1	Frankfurt, West Germany
1958	criticality	Cecil Kelley criticality accident	1	0	Los Alamos, New Mexico, United States
1961	reactor	Soviet submarine K-19^[30]	8	many	North Atlantic, near Southern Greenland
1961	criticality	SL-1 experimental reactor explosion	2	0	NRTS, near Idaho Falls, Idaho, United States
1962	orphan source	radiation accident in Mexico City	4	?	Mexico City, Mexico
1968	reactor	Soviet submarine K-27^[31]	9	40	near Gremikha Bay, Russia
1985	reactor	Soviet submarine K-431^[32]	10	49	Chazhma Bay naval facility near Vladivostok, USSR
1985	radiotherapy	Therac-25 radiation overdose accidents	3	3
1984	orphan source	radiation accident in Morocco^[33]	8	3	Mohammedia, Morocco
1986	reactor	Chernobyl disaster	28	206 - 209	Chernobyl Nuclear Power Plant, Ukrainian SSR
1987	orphan source	Goiânia accident^[34]	4	?	Goiânia, Brazil
1990	radiotherapy	radiotherapy accident in Zaragoza^[35]	11	?	Zaragoza, Spain
1996	radiotherapy	radiotherapy accident in Costa Rica^[36]	7 to 20	46	San José, Costa Rica
1999	criticality	Tokaimura nuclear accident	2	?	Tōkai, Ibaraki, Japan
2000	orphan source	Samut Prakan radiation accident^[37]	3	7	Samut Prakan Province, Thailand
2000	radiotherapy	Instituto Oncologico Nacional accident^[38]^[39]	3 to 7	?	Panama City, Panama
2006	crime	Poisoning of Alexander Litvinenko^[29]^[40]^[41]^[42]^[43]	1	0	London, United Kingdom
2010	orphan source	Mayapuri radiological accident^[37]	1	7	Mayapuri, India

Other animals

Thousands of scientific experiments have been performed to study acute radiation syndrome in animals.

There is a simple guide for predicting survival/death in mammals, including humans, following the acute effects of inhaling radioactive particles.^[44]

References

^ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m ⁿ ^o ^p Donnelly EH, Nemhauser JB, Smith JM et al. (June 2010). "Acute radiation syndrome: assessment and management". South. Med. J. 103 (6): 541–6. doi:10.1097/SMJ.0b013e3181ddd571. PMID 20710137.
^ Xiao M, Whitnall MH; Whitnall (January 2009). "Pharmacological countermeasures for the acute radiation syndrome". Curr Mol Pharmacol 2 (1): 122–33. doi:10.2174/1874467210902010122. PMID 20021452.
^ "Acute Radiation Syndrome". Centers for Disease Control and Prevention. 2005-05-20.
^ "Acute Radiation Syndrome" (PDF). National Center for Environmental Health/Radiation Studies Branch. 2002-04-09. Retrieved 2009-06-22.
^ ^a ^b ^c "Acute Radiation Syndrome: A Fact Sheet for Physicians". Centers for Disease Control and Prevention. 2005-03-18.
^ Reeves GI, Ainsworth EJ (May 1995). "Description of the chronic radiation syndrome in humans irradiated in the former Soviet Union". Radiat. Res. 142 (2): 242–3. doi:10.2307/3579035. PMID 7724741.
^ Christensen DM, Iddins CJ, Sugarman SL (February 2014). "Ionizing radiation injuries and illnesses". Emerg Med Clin North Am 32 (1): 245–65. doi:10.1016/j.emc.2013.10.002. PMID 24275177.
^ "Radiation Exposure and Contamination". Merck Manuals. Retrieved 2 June 2013.
^ The medical handling of skin lesions following high level accidental irradiation, IAEA Advisory Group Meeting, September 1987 Paris.
^ Wells J et al. (1982). "Non-Uniform Irrradiation of Skin: Criteria for Limiting Non-Stochastic Effects". Proceedings of the Third International Symposium of the Society for Radiological Protection _ Advances in Theory and Practice 2: 537–542. ISBN 0-9508123-0-7.
^ Kerr, Richard (31 May 2013). "Radiation Will Make Astronauts' Trip to Mars Even Riskier". Science 340 (6136): 1031. doi:10.1126/science.340.6136.1031. Retrieved 31 May 2013.
^ Zeitlin, C. et al. (31 May 2013). "Measurements of Energetic Particle Radiation in Transit to Mars on the Mars Science Laboratory". Science 340 (6136): 1080–1084. doi:10.1126/science.1235989. Retrieved 31 May 2013.
^ Chang, Kenneth (30 May 2013). "Data Point to Radiation Risk for Travelers to Mars". New York Times. Retrieved 31 May 2013.
^ Gelling, Cristy (June 29, 2013). "Mars trip would deliver big radiation dose; Curiosity instrument confirms expectation of major exposures". Science News 183 (13): 8. Retrieved July 8, 2013.
^ William, C. Inkret; Charles B. Meinhold; John C. Taschner (1995). "A Brief History of Radiation Protection Standards" (PDF). Los Alamos Science (23): 116–123. Retrieved 12 November 2012.
^ "Superflares could kill unprotected astronauts". New Scientist. 21 March 2005.
^ National Research Council (U.S.). Ad Hoc Committee on the Solar System Radiation Environment and NASA's Vision for Space Exploration (2006). Space Radiation Hazards and the Vision for Space Exploration. National Academies Press. ISBN 978-0-309-10264-3.
^ ^a ^b "The 2007 Recommendations of the International Commission on Radiological Protection". Annals of the ICRP. ICRP publication 103 37 (2–4). 2007. ISBN 978-0-7020-3048-2. Retrieved 17 May 2012.
^ The Effects of Nuclear Weapons, Revised ed., US DOD 1962, p. 579
^ "Radiation and its Health Effects". Nuclear Regulatory Commission. Retrieved 2013-11-19.
^ Brook I, Ledney GD; Ledney (1994). "Effect of antimicrobial therapy on the gastrointestinal bacterial flora, infection and mortality in mice exposed to different doses of irradiation". Journal of Antimicrobial Chemotherapy 33: 63–74. doi:10.1093/jac/33.1.63. ISSN 1460-2091.
^ Patchen ML, Brook I, Elliott TB, Jackson WE; Brook; Elliott; Jackson (1993). "Adverse effects of pefloxacin in irradiated C3H/HeN mice: correction with glucan therapy". Antimicrobial Agents and Chemotherapy 37 (9): 1882–9. doi:10.1128/AAC.37.9.1882. ISSN 0066-4804. PMC 188087. PMID 8239601.
^ Brook I, Walker RI, MacVittie TJ; Walker; MacVittie (1988). "Effect of antimicrobial therapy on the bowel flora and bacterial infection in irradiated mice". International Journal of Radiation Biology 53 (5): 709–18. doi:10.1080/09553008814551081. ISSN 1362-3095.
^ Brook I, Ledney D (1992). "Quinolone therapy in the management of infection after irradiation". Crit Rev Microbiol: 18235–46.
^ Brook I, Elliot TB, Ledney GD, Shomaker MO, Knudson GB (2004). "Management of postirradiation infection: lessons learned from animal models". Military Medicine 169: 194–7. ISSN 0026-4075.
^ Carmichael, Ann G. (1991). Medicine: A Treasury of Art and Literature. New York: Harkavy Publishing Service. p. 376. ISBN 0-88363-991-2.
^ Turai, István; Veress, Katalin (2001). "Radiation Accidents: Occurrence, Types, Consequences, Medical Management, and the Lessons to be Learned". Central European Journal of Occupational and Environmental Medicine 7 (1): 3–14. Retrieved 1 June 2012.
^ Chambrette, V.; Hardy, S.; Nenot, J. C. (2001). "Les accidents d'irradiation: Mise en place d'une base de données "ACCIRAD" à I'IPSN" (PDF). Radioprotection 36 (4): 477–510. doi:10.1051/radiopro:2001105. Retrieved 13 June 2012.
^ ^a ^b Goldfarb, Alex; Litvinenko, Marina (2007). Death of a Dissident: The Poisoning of Alexander Litvinenko and the Return of the KGB. Simon & Schuster UK. ISBN 978-1-4711-0301-8.
^ Johnston, Wm. Robert. "K-19 submarine reactor accident, 1961". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.
^ Johnston, Wm. Robert. "K-27 submarine reactor accident, 1968". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.
^ Johnston, Wm. Robert. "K-431 submarine reactor accident, 1985". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.
^ "Lost Iridium-192 Source".
^ The Radiological Accident in Goiania p. 2.
^ Strengthening the Safety of Radiation Sources p. 15.
^ Gusev, Igor; Guskova, Angelina; Mettler, Fred A. (12 December 2010). Medical Management of Radiation Accidents, Second Edition. CRC Press. pp. 299–303. ISBN 978-1-4200-3719-7.
^ ^a ^b Bagla, Pallava (7 May 2010). "Radiation Accident a 'Wake-Up Call' For India's Scientific Community". Science 328 (5979): 679. doi:10.1126/science.328.5979.679-a.
^ International Atomic Energy Agency. "Investigation of an accidental Exposure of radiotherapy patients in Panama" (PDF).
^ Johnston, Robert (September 23, 2007). "Deadliest radiation accidents and other events causing radiation casualties". Database of Radiological Incidents and Related Events.
^ Patterson AJ (2007). "Ushering in the era of nuclear terrorism". Critical Care Medicine 35 (3): 953–4. doi:10.1097/01.CCM.0000257229.97208.76. PMID 17421087.
^ Acton JM, Rogers MB, Zimmerman PD; Brooke Rogers; Zimmerman (September 2007). "Beyond the Dirty Bomb: Re-thinking Radiological Terror". Survival 49 (3): 151–168. doi:10.1080/00396330701564760.
^ Sixsmith, Martin (2007). The Litvinenko File: The Life and Death of a Russian Spy. True Crime. p. 14. ISBN 0-312-37668-5.
^ Bremer Mærli, Morten. "Radiological Terrorism: "Soft Killers"". Bellona Foundation.
^ Wells J (1976). "A guide to the prognosis for survival in mammals following the acute effects of inhaled radioactive particles". Journal of the Institution of Nuclear Engineers 17 (5): 126–131. ISSN 0368-2595.

External links

The Center for Disease Control's fact sheet on Acute Radiation Syndrome
List of radiation accidents and other events causing radiation casualties
The criticality accident in Sarov, International Atomic Energy Agency, 2001 — well documented account of the biological effects of a criticality accident
Armed Forces Radiobiology Research Institute
This article incorporates public domain material from websites or documents of the Armed Forces Radiobiology Research Institute and the Center for Disease Control and Prevention

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1. 小児における放射線被曝の臨床的特徴 clinical features of radiation exposure in children
2. 成人における放射線障害の生物学および臨床的特徴 biology and clinical features of radiation injury in adults
3. 原子力災害後の小児における放射線被曝のマネージメント management of radiation exposure in children following a nuclear disaster
4. 成人における放射線障害の治療 treatment of radiation injury in the adult
5. 腕神経叢症候群 brachial plexus syndromes

English Journal

Breast Cancer and Non-Hodgkin Lymphoma in a Young Male with Cowden Syndrome.

Hagelstrom RT1, Ford J2, Reiser GM3, Nelson M1, Pickering DL1, Althof PA1, Sanger WG1, Coccia PF4.
Pediatric blood & cancer.Pediatr Blood Cancer.2016 Mar;63(3):544-6. doi: 10.1002/pbc.25796. Epub 2015 Oct 15.
Male breast cancer (MBC) is unusual, especially in young adults. Most cases of MBC as a secondary malignancy relate to the previous treatment with ionizing radiation. MBC can be associated with mutations in hereditary cancer predisposition syndrome genes (i.e., BRCA2); however, no such association h
PMID 26468640

Assessment of the Stiffness of Major Salivary Glands in Primary Sjögren's Syndrome through Quantitative Acoustic Radiation Force Impulse Imaging.

Zhang S1, Zhu J2, Zhang X3, He J3, Li J1.
Ultrasound in medicine & biology.Ultrasound Med Biol.2016 Mar;42(3):645-53. doi: 10.1016/j.ultrasmedbio.2015.11.009. Epub 2015 Dec 20.
The purpose of the study described here was to evaluate salivary gland stiffness in primary Sjögren's syndrome (pSS) via acoustic radiation force impulse imaging, including Virtual Touch tissue quantification (VTQ) and Virtual Touch tissue imaging quantification (VTIQ). Twenty-one patients with pSS
PMID 26715188

A young boy with recurrent headache, lethargy, and hyponatremia.

Cao L1, Wagar EA1, Meng QH2.
Clinica chimica acta; international journal of clinical chemistry.Clin Chim Acta.2016 Feb 15;454:46-8. doi: 10.1016/j.cca.2015.12.038. Epub 2015 Dec 31.
BACKGROUND: To investigate and differentiate the causes of hyponatremia in an 8-y old boy.METHODS: An 8-y boy presented with headache, vomiting, and diplopia. Magnetic resonance imaging of the brain confirmed a mass in the pineal region. Pathology report demonstrated a mixed germ cell tumor with a y
PMID 26747959

Japanese Journal

Toll様受容体を標的とした急性放射線性消化管症候群の新たな予防戦略

臨床免疫・アレルギー科 = Clinical immunology & allergology 66(3), 267-273, 2016-09
NAID 40020953204

1,4-Naphthoquinone, a pro-oxidant, ameliorated radiation induced gastro-intestinal injury through perturbation of cellular redox and activation of Nrf2 pathway

Drug Discoveries & Therapeutics 10(2), 93-102, 2016
NAID 130005152842

1,4-Naphthoquinone, a pro-oxidant, ameliorated radiation induced gastro-intestinal injury through perturbation of cellular redox and activation of Nrf2 pathway

Drug Discoveries & Therapeutics advpub(0), 2016
NAID 130005146362

Related Pictures

★リンクテーブル★

リンク元	「放射線宿酔」「radiation sickness」「放射線症候群」
関連記事	「radiation」「syndrome」

「放射線宿酔」

Acute radiation syndrome
	A Japanese girl presenting the effects of radiation sickness.
Classification and external resources
Specialty	Toxicology
ICD-10	T66
ICD-9-CM	990
MedlinePlus	000026
eMedicine	article/834015
MeSH	D011832

　　[★]

英: radiation sickness, radiotoxemia
同: X線宿酔 X-ray sickness、放射線症候群 radiation syndrome
関: 放射線障害

身体的影響の早期障害
確定的影響
種々の電離放射線の照射によって、時に起こる全身倦怠、食欲不振、悪心、嘔吐、下痢、頭痛などの症状。

「radiation sickness」

　　[★]

放射線宿酔

関: radiation injury、radiation syndrome、radiotoxemia

「放射線症候群」

　　[★]

英: radiation syndrome
関: 放射線宿酔、放射線障害

「radiation」

　　[★]

n.

放射、放射線
放射物
輻射、放熱

「syndrome」

　　[★]

n.

症候群

[Review10-1] ^ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m ⁿ ^o ^p Donnelly EH, Nemhauser JB, Smith JM et al. (June 2010). "Acute radiation syndrome: assessment and management". South. Med. J. 103 (6): 541–6. doi:10.1097/SMJ.0b013e3181ddd571. PMID 20710137.

[Review09-2] Xiao M, Whitnall MH; Whitnall (January 2009). "Pharmacological countermeasures for the acute radiation syndrome". Curr Mol Pharmacol 2 (1): 122–33. doi:10.2174/1874467210902010122. PMID 20021452.

[3] "Acute Radiation Syndrome". Centers for Disease Control and Prevention. 2005-05-20.

[4] "Acute Radiation Syndrome" (PDF). National Center for Environmental Health/Radiation Studies Branch. 2002-04-09. Retrieved 2009-06-22.

[arsphysicianfactsheet-5] "Acute Radiation Syndrome: A Fact Sheet for Physicians". Centers for Disease Control and Prevention. 2005-03-18.

[Chronic95-6] Reeves GI, Ainsworth EJ (May 1995). "Description of the chronic radiation syndrome in humans irradiated in the former Soviet Union". Radiat. Res. 142 (2): 242–3. doi:10.2307/3579035. PMID 7724741.

[Christensen2014-7] Christensen DM, Iddins CJ, Sugarman SL (February 2014). "Ionizing radiation injuries and illnesses". Emerg Med Clin North Am 32 (1): 245–65. doi:10.1016/j.emc.2013.10.002. PMID 24275177.

[8] "Radiation Exposure and Contamination". Merck Manuals. Retrieved 2 June 2013.

[9] The medical handling of skin lesions following high level accidental irradiation, IAEA Advisory Group Meeting, September 1987 Paris.

[10] Wells J et al. (1982). "Non-Uniform Irrradiation of Skin: Criteria for Limiting Non-Stochastic Effects". Proceedings of the Third International Symposium of the Society for Radiological Protection _ Advances in Theory and Practice 2: 537–542. ISBN 0-9508123-0-7.

[SCI-20130531a-11] Kerr, Richard (31 May 2013). "Radiation Will Make Astronauts' Trip to Mars Even Riskier". Science 340 (6136): 1031. doi:10.1126/science.340.6136.1031. Retrieved 31 May 2013.

[SCI-20130531b-12] Zeitlin, C. et al. (31 May 2013). "Measurements of Energetic Particle Radiation in Transit to Mars on the Mars Science Laboratory". Science 340 (6136): 1080–1084. doi:10.1126/science.1235989. Retrieved 31 May 2013.

[NYT-20130530-13] Chang, Kenneth (30 May 2013). "Data Point to Radiation Risk for Travelers to Mars". New York Times. Retrieved 31 May 2013.

[SN-20130629-14] Gelling, Cristy (June 29, 2013). "Mars trip would deliver big radiation dose; Curiosity instrument confirms expectation of major exposures". Science News 183 (13): 8. Retrieved July 8, 2013.

[15] William, C. Inkret; Charles B. Meinhold; John C. Taschner (1995). "A Brief History of Radiation Protection Standards" (PDF). Los Alamos Science (23): 116–123. Retrieved 12 November 2012.

[16] "Superflares could kill unprotected astronauts". New Scientist. 21 March 2005.

[17] National Research Council (U.S.). Ad Hoc Committee on the Solar System Radiation Environment and NASA's Vision for Space Exploration (2006). Space Radiation Hazards and the Vision for Space Exploration. National Academies Press. ISBN 978-0-309-10264-3.

[ICRP103-18] "The 2007 Recommendations of the International Commission on Radiological Protection". Annals of the ICRP. ICRP publication 103 37 (2–4). 2007. ISBN 978-0-7020-3048-2. Retrieved 17 May 2012.

[remdefinition-19] The Effects of Nuclear Weapons, Revised ed., US DOD 1962, p. 579

[20] "Radiation and its Health Effects". Nuclear Regulatory Commission. Retrieved 2013-11-19.

[21] Brook I, Ledney GD; Ledney (1994). "Effect of antimicrobial therapy on the gastrointestinal bacterial flora, infection and mortality in mice exposed to different doses of irradiation". Journal of Antimicrobial Chemotherapy 33: 63–74. doi:10.1093/jac/33.1.63. ISSN 1460-2091.

[22] Patchen ML, Brook I, Elliott TB, Jackson WE; Brook; Elliott; Jackson (1993). "Adverse effects of pefloxacin in irradiated C3H/HeN mice: correction with glucan therapy". Antimicrobial Agents and Chemotherapy 37 (9): 1882–9. doi:10.1128/AAC.37.9.1882. ISSN 0066-4804. PMC 188087. PMID 8239601.

[23] Brook I, Walker RI, MacVittie TJ; Walker; MacVittie (1988). "Effect of antimicrobial therapy on the bowel flora and bacterial infection in irradiated mice". International Journal of Radiation Biology 53 (5): 709–18. doi:10.1080/09553008814551081. ISSN 1362-3095.

[24] Brook I, Ledney D (1992). "Quinolone therapy in the management of infection after irradiation". Crit Rev Microbiol: 18235–46.

[25] Brook I, Elliot TB, Ledney GD, Shomaker MO, Knudson GB (2004). "Management of postirradiation infection: lessons learned from animal models". Military Medicine 169: 194–7. ISSN 0026-4075.

[26] Carmichael, Ann G. (1991). Medicine: A Treasury of Art and Literature. New York: Harkavy Publishing Service. p. 376. ISBN 0-88363-991-2.

[27] Turai, István; Veress, Katalin (2001). "Radiation Accidents: Occurrence, Types, Consequences, Medical Management, and the Lessons to be Learned". Central European Journal of Occupational and Environmental Medicine 7 (1): 3–14. Retrieved 1 June 2012.

[28] Chambrette, V.; Hardy, S.; Nenot, J. C. (2001). "Les accidents d'irradiation: Mise en place d'une base de données "ACCIRAD" à I'IPSN" (PDF). Radioprotection 36 (4): 477–510. doi:10.1051/radiopro:2001105. Retrieved 13 June 2012.

[Goldfarb-29] Goldfarb, Alex; Litvinenko, Marina (2007). Death of a Dissident: The Poisoning of Alexander Litvinenko and the Return of the KGB. Simon & Schuster UK. ISBN 978-1-4711-0301-8.

[30] Johnston, Wm. Robert. "K-19 submarine reactor accident, 1961". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.

[31] Johnston, Wm. Robert. "K-27 submarine reactor accident, 1968". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.

[32] Johnston, Wm. Robert. "K-431 submarine reactor accident, 1985". Database of radiological incidents and related events. Johnston's Archive. Retrieved 24 May 2012.

[Lost_Iridium-192_Source-33] "Lost Iridium-192 Source".

[34] The Radiological Accident in Goiania p. 2.

[rad-35] Strengthening the Safety of Radiation Sources p. 15.

[books.google.com.au-36] Gusev, Igor; Guskova, Angelina; Mettler, Fred A. (12 December 2010). Medical Management of Radiation Accidents, Second Edition. CRC Press. pp. 299–303. ISBN 978-1-4200-3719-7.

[pall-37] Bagla, Pallava (7 May 2010). "Radiation Accident a 'Wake-Up Call' For India's Scientific Community". Science 328 (5979): 679. doi:10.1126/science.328.5979.679-a.

[38] International Atomic Energy Agency. "Investigation of an accidental Exposure of radiotherapy patients in Panama" (PDF).

[johnston2007-39] Johnston, Robert (September 23, 2007). "Deadliest radiation accidents and other events causing radiation casualties". Database of Radiological Incidents and Related Events.

[40] Patterson AJ (2007). "Ushering in the era of nuclear terrorism". Critical Care Medicine 35 (3): 953–4. doi:10.1097/01.CCM.0000257229.97208.76. PMID 17421087.

[41] Acton JM, Rogers MB, Zimmerman PD; Brooke Rogers; Zimmerman (September 2007). "Beyond the Dirty Bomb: Re-thinking Radiological Terror". Survival 49 (3): 151–168. doi:10.1080/00396330701564760.

[42] Sixsmith, Martin (2007). The Litvinenko File: The Life and Death of a Russian Spy. True Crime. p. 14. ISBN 0-312-37668-5.

[Bellona-43] Bremer Mærli, Morten. "Radiological Terrorism: "Soft Killers"". Bellona Foundation.

[44] Wells J (1976). "A guide to the prognosis for survival in mammals following the acute effects of inhaled radioactive particles". Journal of the Institution of Nuclear Engineers 17 (5): 126–131. ISSN 0368-2595.

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radiation syndrome