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Adrenaline

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This article is about the natural hormone. For the medication, see Epinephrine (medication). For other uses, see Adrenaline (disambiguation).

Epinephrine
Skeletal formula of adrenaline
Skeletal formula of adrenaline
Ball-and-stick model of epinephrine (adrenaline) molecule
Ball-and-stick model of the zwitterionic form of adrenaline found in the crystal structure[1]
Clinical data
Trade namesEpipen, Adrenaclick, others
Other namesEpinephrine, adrenaline, adrenalin; 3,4,β-Trihydroxy-N-methylphenethylamine
AHFS/Drugs.comMonograph
MedlinePlusa603002
License data
Pregnancy
category
  • AU: A
Addiction
liability		None
Routes of
administration		Intravenous, intramuscular, endotracheal, intracardiac, nasal, eye drop
Drug classAdrenergic receptor agonist; Sympathomimetic
ATC code
Physiological data
ReceptorsAdrenergic receptors
MetabolismAdrenergic synapse (MAO and COMT)
Legal status
Legal status
Pharmacokinetic data
Bioavailability
  • Oral: negligible
  • Intravenous: c. 99%
  • Subcutaneous: high
Protein binding15–20%[5][6]
MetabolismAdrenergic synapse (MAO and COMT)
MetabolitesMetanephrine[7]
Onset of actionRapid[8]
Elimination half-life2–3 minutes in plasma
Duration of actionFew minutes[9]
ExcretionUrine
Identifiers
  • (R)-4-(1-Hydroxy-2-(methylamino)ethyl)benzene-1,2-diol
CAS Number
PubChem CID
IUPHAR/BPS
DrugBank
ChemSpider
UNII
KEGG
ChEBI
ChEMBL
PDB ligand
CompTox Dashboard (EPA)
ECHA InfoCard100.000.090 Edit this at Wikidata
Chemical and physical data
FormulaC9H13NO3
Molar mass183.207 g·mol−1
3D model (JSmol)
Density1.283±0.06 g/cm3 @ 20 °C, 760 Torr
  • CNC[C@H](O)c1ccc(O)c(O)c1
  • InChI=1S/C9H13NO3/c1-10-5-9(13)6-2-3-7(11)8(12)4-6/h2-4,9-13H,5H2,1H3/t9-/m0/s1 checkY
  • Key:UCTWMZQNUQWSLP-VIFPVBQESA-N checkY

Adrenaline, also known as epinephrine, is a hormone and medication.[10][11] Adrenaline is normally produced by both the adrenal glands and a small number of neurons in the medulla oblongata, where it acts as a neurotransmitter involved in regulating visceral functions (e.g., respiration).[10][12] It plays an important role in the fight-or-flight response by increasing blood flow to muscles, output of the heart, pupil dilation response and blood sugar level.[13][14] It does this by binding to alpha and beta receptors.[14] It is found in many animals and some single-celled organisms.[15][16] Polish physiologist Napoleon Cybulski first isolated adrenaline in 1895.[17]

Medical uses

Main article: Epinephrine (medication)

As a medication, it is used to treat a number of conditions including anaphylaxis, cardiac arrest, and superficial bleeding.[8] Inhaled adrenaline may be used to improve the symptoms of croup.[18] It may also be used for asthma when other treatments are not effective. It is given intravenously, by injection into a muscle, by inhalation, or by injection just under the skin.[8] Common side effects include shakiness, anxiety, and sweating. A fast heart rate and high blood pressure may occur. Occasionally it may result in an abnormal heart rhythm. While the safety of its use during pregnancy and breastfeeding is unclear, the benefits to the mother must be taken into account.[8]

A case has been made for the use of adrenaline infusion in place of the widely accepted treatment of inotropes for preterm infants with clinical cardiovascular compromise. Although there is sufficient data which strongly recommends adrenaline infusions as a viable treatment, more trials are needed in order to conclusively determine that these infusions will successfully reduce morbidity and mortality rates among preterm, cardiovascularly compromised infants.[19]

Physiological effects

The adrenal medulla is a minor contributor to total circulating catecholamines (L-DOPA is at a higher concentration in the plasma),[20] though it contributes over 90% of circulating adrenaline. Little adrenaline is found in other tissues, mostly in scattered chromaffin cells, and in a small number of neurons which use adrenaline as a neurotransmitter.[21] Following adrenalectomy, adrenaline disappears below the detection limit in the blood stream.[22]

Pharmacological doses of adrenaline stimulate α1, α2, β1, β2, and β3 adrenoceptors of the sympathetic nervous system. Sympathetic nerve receptors are classified as adrenergic, based on their responsiveness to adrenaline.[23] The term "adrenergic" is often misinterpreted in that the main sympathetic neurotransmitter is noradrenaline, rather than adrenaline, as discovered by Ulf von Euler in 1946.[24][25] Adrenaline does have a β2 adrenoceptor-mediated effect on metabolism and the airway, there being no direct neural connection from the sympathetic ganglia to the airway.[26][27][28]

The concept of the adrenal medulla and the sympathetic nervous system being involved in the flight, fight and fright response was originally proposed by Cannon.[29] But the adrenal medulla, in contrast to the adrenal cortex, is not required for survival. In adrenalectomized patients hemodynamic and metabolic responses to stimuli such as hypoglycemia and exercise remain normal.[30][31]

Exercise

One physiological stimulus to adrenaline secretion is exercise. This was first demonstrated by measuring the dilation of a (denervated) pupil of a cat on a treadmill,[32] later confirmed using a biological assay on urine samples.[33] Biochemical methods for measuring catecholamines in plasma were published from 1950 onwards.[34] Although much valuable work has been published using fluorimetric assays to measure total catecholamine concentrations, the method is too non-specific and insensitive to accurately determine the very small quantities of adrenaline in plasma. The development of extraction methods and enzyme-isotope derivate radio-enzymatic assays (REA) transformed the analysis down to a sensitivity of 1 pg for adrenaline.[35] Early REA plasma assays indicated that adrenaline and total catecholamines rise late in exercise, mostly when anaerobic metabolism commences.[36][37][38]

During exercise, the adrenaline blood concentration rises partially from the increased secretion of the adrenal medulla and partly from the decreased metabolism of adrenaline due to reduced blood flow to the liver.[39] Infusion of adrenaline to reproduce exercise circulating concentrations of adrenaline in subjects at rest has little haemodynamic effect, other than a small β2-mediated fall in diastolic blood pressure.[40][41] Infusion of adrenaline well within the physiological range suppresses human airway hyper-reactivity sufficiently to antagonize the constrictor effects of inhaled histamine.[42]

A link between the sympathetic nervous system and the lungs was shown in 1887 when Grossman showed that stimulation of cardiac accelerator nerves reversed muscarine-induced airway constriction.[43] In experiments in the dog, where the sympathetic chain was cut at the level of the diaphragm, Jackson showed that there was no direct sympathetic innervation to the lung, but that bronchoconstriction was reversed by release of adrenaline from the adrenal medulla.[44] An increased incidence of asthma has not been reported for adrenalectomized patients; those with a predisposition to asthma will have some protection from airway hyper-reactivity from their corticosteroid replacement therapy. Exercise induces progressive airway dilation in normal subjects that correlates with work load and is not prevented by beta blockade.[45] The progressive dilation of the airway with increasing exercise is mediated by a progressive reduction in resting vagal tone. Beta blockade with propranolol causes a rebound in airway resistance after exercise in normal subjects over the same time course as the bronchoconstriction seen with exercise induced asthma.[46] The reduction in airway resistance during exercise reduces the work of breathing.[47]

Emotional response

Every emotional response has a behavioral component, an autonomic component, and a hormonal component. The hormonal component includes the release of adrenaline, an adrenomedullary response that occurs in response to stress and that is controlled by the sympathetic nervous system. The major emotion studied in relation to adrenaline is fear. In an experiment, subjects who were injected with adrenaline expressed more negative and fewer positive facial expressions to fear films compared to a control group. These subjects also reported a more intense fear from the films and greater mean intensity of negative memories than control subjects.[48] The findings from this study demonstrate that there are learned associations between negative feelings and levels of adrenaline. Overall, the greater amount of adrenaline is positively correlated with an arousal state of negative feelings. These findings can be an effect in part that adrenaline elicits physiological sympathetic responses including an increased heart rate and knee shaking, which can be attributed to the feeling of fear regardless of the actual level of fear elicited from the video. Although studies have found a definite relation between adrenaline and fear, other emotions have not had such results. In the same study, subjects did not express a greater amusement to an amusement film nor greater anger to an anger film.[48] Similar findings were also supported in a study that involved rodent subjects that either were able or unable to produce adrenaline. Findings support the idea that adrenaline does have a role in facilitating the encoding of emotionally arousing events, contributing to higher levels of arousal due to fear.[49]

Memory

It has been found that adrenergic hormones, such as adrenaline, can produce retrograde enhancement of long-term memory in humans. The release of adrenaline due to emotionally stressful events, which is endogenous adrenaline, can modulate memory consolidation of the events, ensuring memory strength that is proportional to memory importance. Post-learning adrenaline activity also interacts with the degree of arousal associated with the initial coding.[50] There is evidence that suggests adrenaline does have a role in long-term stress adaptation and emotional memory encoding specifically. Adrenaline may also play a role in elevating arousal and fear memory under particular pathological conditions including post-traumatic stress disorder.[49] Overall, "Extensive evidence indicates that epinephrine (EPI) modulates memory consolidation for emotionally arousing tasks in animals and human subjects.”[51] Studies have also found that recognition memory involving adrenaline depends on a mechanism that depends on β adrenoceptors.[51] Adrenaline does not readily cross the blood–brain barrier, so its effects on memory consolidation are at least partly initiated by β adrenoceptors in the periphery. Studies have found that sotalol, a β adrenoceptor antagonist that also does not readily enter the brain, blocks the enhancing effects of peripherally administered adrenaline on memory.[52] These findings suggest that β adrenoceptors are necessary for adrenaline to have an effect on memory consolidation.

Pathology

Increased adrenaline secretion is observed in pheochromocytoma, hypoglycemia, myocardial infarction and to a lesser degree in essential tremor (also known as benign, familial or idiopathic tremor). A general increase in sympathetic neural activity is usually accompanied by increased adrenaline secretion, but there is selectivity during hypoxia and hypoglycaemia, when the ratio of adrenaline to noradrenaline is considerably increased.[53][54][55] Therefore, there must be some autonomy of the adrenal medulla from the rest of the sympathetic system.

Myocardial infarction is associated with high levels of circulating adrenaline and noradrenaline, particularly in cardiogenic shock.[56][57]

Benign familial tremor (BFT) is responsive to peripheral β adrenergic blockers and β2-stimulation is known to cause tremor. Patients with BFT were found to have increased plasma adrenaline, but not noradrenaline.[58][59]

Low, or absent, concentrations of adrenaline can be seen in autonomic neuropathy or following adrenalectomy. Failure of the adrenal cortex, as with Addison's disease, can suppress adrenaline secretion as the activity of the synthesing enzyme, phenylethanolamine-N-methyltransferase, depends on the high concentration of cortisol that drains from the cortex to the medulla.[60][61][62]

Terminology

In 1901, Jōkichi Takamine patented a purified extract from the adrenal glands, and called it "adrenalin" (from the Latin ad and renal, "near the kidneys"), which was trademarked by Parke, Davis & Co in the US.[63] The British Approved Name and European Pharmacopoeia term for this drug is hence adrenaline.

However, the pharmacologist John Abel had already prepared an extract from adrenal glands as early as 1897, and coined the name epinephrine to describe it (from the Greek epi and nephros, "on top of the kidneys").[63] In the belief that Abel's extract was the same as Takamine's (a belief since disputed), epinephrine became[when?] the generic name in the US,[63] and remains the pharmaceutical's United States Adopted Name and International Nonproprietary Name (though the name adrenaline is frequently used).

The terminology is now one of the few differences between the INN and BAN systems of names.[64] Although European health professionals and scientists preferentially use the term adrenaline, the converse is true among American health professionals and scientists. Nevertheless, even among the latter, receptors for this substance are called adrenergic receptors or adrenoceptors, and pharmaceuticals that mimic its effects are often called adrenergics. The history of adrenaline and epinephrine is reviewed by Rao.[65]

Mechanism of action

See also: Adrenergic receptor
Physiologic responses to adrenaline by organ
Organ Effects
Heart Increases heart rate; contractility; conduction across AV node
Lungs Increases respiratory rate; bronchodilation
Liver Stimulates glycogenolysis
Muscle Stimulates glycogenolysis and glycolysis
Brain
Systemic Vasoconstriction and vasodilation
Triggers lipolysis
Muscle contraction
7x speed timelapse video of fish melanophores responding to 200µM adrenaline

As a hormone, adrenaline acts on nearly all body tissues. Its actions vary by tissue type and tissue expression of adrenergic receptors. For example, high levels of adrenaline causes smooth muscle relaxation in the airways but causes contraction of the smooth muscle that lines most arterioles.

Adrenaline acts by binding to a variety of adrenergic receptors. Adrenaline is a nonselective agonist of all adrenergic receptors, including the major subtypes α1, α2, β1, β2, and β3.[66] Adrenaline's binding to these receptors triggers a number of metabolic changes. Binding to α-adrenergic receptors inhibits insulin secretion by the pancreas, stimulates glycogenolysis in the liver and muscle,[67] and stimulates glycolysis and inhibits insulin-mediated glycogenesis in muscle.[68][69] β adrenergic receptor binding triggers glucagon secretion in the pancreas, increased adrenocorticotropic hormone (ACTH) secretion by the pituitary gland, and increased lipolysis by adipose tissue. Together, these effects lead to increased blood glucose and fatty acids, providing substrates for energy production within cells throughout the body.[69]

Its actions are to increase peripheral resistance via α1 receptor-dependent vasoconstriction and to increase cardiac output via its binding to β1 receptors. The goal of reducing peripheral circulation is to increase coronary and cerebral perfusion pressures and therefore increase oxygen exchange at the cellular level.[70] While adrenaline does increase aortic, cerebral, and carotid circulation pressure, it lowers carotid blood flow and end-tidal CO2 or ETCO2 levels. It appears that adrenaline may be improving macrocirculation at the expense of the capillary beds where actual perfusion is taking place.[71]

In liver cells, adrenaline binds to the β adrenergic receptor, which changes conformation and helps Gs, a G protein, exchange GDP to GTP. This trimeric G protein dissociates to Gs alpha and Gs beta/gamma subunits. Gs alpha binds to adenyl cyclase, thus converting ATP into cyclic AMP. Cyclic AMP binds to the regulatory subunit of protein kinase A: Protein kinase A phosphorylates phosphorylase kinase. Meanwhile, Gs beta/gamma binds to the calcium channel and allows calcium ions to enter the cytoplasm. Calcium ions bind to calmodulin proteins, a protein present in all eukaryotic cells, which then binds to phosphorylase kinase and finishes its activation. Phosphorylase kinase phosphorylates glycogen phosphorylase, which then phosphorylates glycogen and converts it to glucose-6-phosphate. [citation needed]

Measurement in biological fluids

Adrenaline may be quantified in blood, plasma or serum as a diagnostic aid, to monitor therapeutic administration, or to identify the causative agent in a potential poisoning victim. Endogenous plasma adrenaline concentrations in resting adults are normally less than 10 ng/L, but may increase by 10-fold during exercise and by 50-fold or more during times of stress. Pheochromocytoma patients often have plasma adrenaline levels of 1000–10,000 ng/L. Parenteral administration of adrenaline to acute-care cardiac patients can produce plasma concentrations of 10,000 to 100,000 ng/L.[72][73]

Biosynthesis and regulation

The biosynthesis of adrenaline involves a series of enzymatic reactions.

In chemical terms, adrenaline is one of a group of monoamines called the catecholamines. Adrenaline is synthesized in the chromaffin cells of the adrenal medulla of the adrenal gland and a small number of neurons in the medulla oblongata in the brain through a metabolic pathway that converts the amino acids phenylalanine and tyrosine into a series of metabolic intermediates and, ultimately, adrenaline.[10][12][74] Tyrosine is first oxidized to L-DOPA by Tyrosine hydroxylase, this is the rate-limiting step. Then it is subsequently decarboxylated to give dopamine by DOPA decarboxylase (aromatic L-amino acid decarboxylase). Dopamine is then converted to noradrenaline by dopamine beta-hydroxylase which utilizes ascorbic acid (Vitamin C) and copper. The final step in adrenaline biosynthesis is the methylation of the primary amine of noradrenaline. This reaction is catalyzed by the enzyme phenylethanolamine N-methyltransferase (PNMT) which utilizes S-adenosyl methionine (SAMe) as the methyl donor.[75] While PNMT is found primarily in the cytosol of the endocrine cells of the adrenal medulla (also known as chromaffin cells), it has been detected at low levels in both the heart and brain.[76]

Biosynthetic pathways for catecholamines and trace amines in the human brain[77][78][79]
The image above contains clickable links
Epinephrine is produced in a small group of neurons in the human brain (specifically, in the medulla oblongata) via the metabolic pathway shown above.[12]

Regulation

The major physiologic triggers of adrenaline release center upon stresses, such as physical threat, excitement, noise, bright lights, and high or low ambient temperature. All of these stimuli are processed in the central nervous system.[80]

Adrenocorticotropic hormone (ACTH) and the sympathetic nervous system stimulate the synthesis of adrenaline precursors by enhancing the activity of tyrosine hydroxylase and dopamine β-hydroxylase, two key enzymes involved in catecholamine synthesis.[citation needed] ACTH also stimulates the adrenal cortex to release cortisol, which increases the expression of PNMT in chromaffin cells, enhancing adrenaline synthesis. This is most often done in response to stress.[citation needed] The sympathetic nervous system, acting via splanchnic nerves to the adrenal medulla, stimulates the release of adrenaline. Acetylcholine released by preganglionic sympathetic fibers of these nerves acts on nicotinic acetylcholine receptors, causing cell depolarization and an influx of calcium through voltage-gated calcium channels. Calcium triggers the exocytosis of chromaffin granules and, thus, the release of adrenaline (and noradrenaline) into the bloodstream.[citation needed] For noradrenaline to be acted upon by PNMT in the cytosol, it must first be shipped out of granules of the chromaffin cells. This may occur via the catecholamine-H+ exchanger VMAT1. VMAT1 is also responsible for transporting newly synthesized adrenaline from the cytosol back into chromaffin granules in preparation for release.[81]

Unlike many other hormones adrenaline (as with other catecholamines) does not exert negative feedback to down-regulate its own synthesis.[82] Abnormally elevated levels of adrenaline can occur in a variety of conditions, such as surreptitious adrenaline administration, pheochromocytoma, and other tumors of the sympathetic ganglia.

Its action is terminated with reuptake into nerve terminal endings, some minute dilution, and metabolism by monoamine oxidase and catechol-O-methyl transferase.

History

Main article: History of catecholamine research

Extracts of the adrenal gland were first obtained by Polish physiologist Napoleon Cybulski in 1895. These extracts, which he called nadnerczyna ("adrenalin"), contained adrenaline and other catecholamines.[83] American ophthalmologist William H. Bates discovered adrenaline's usage for eye surgeries prior to 20 April 1896.[84] In 1897, John Jacob Abel (1857-1938), the father of modern pharmacology, finds a natural substance produced by the adrenal glands that he names epinephrine. The first hormone to be identified, it remains a crucial, firstline treatment for heart attacks, severe allergic reactions and other conditions. Japanese chemist Jōkichi Takamine and his assistant Keizo Uenaka independently discovered adrenaline in 1900.[85][86] In 1901, Takamine successfully isolated and purified the hormone from the adrenal glands of sheep and oxen.[87] Adrenaline was first synthesized in the laboratory by Friedrich Stolz and Henry Drysdale Dakin, independently, in 1904.[86]

Society and culture

Adrenaline junkie

See also: Novelty seeking

An adrenaline junkie is somebody who engages in sensation-seeking behavior through "the pursuit of novel and intense experiences without regard for physical, social, legal or financial risk".[88] Such activities include extreme and risky sports, substance abuse, unsafe sex, and crime. The term relates to the increase in circulating levels of adrenaline during physiological stress.[89] Such an increase in the circulating concentration of adrenaline is secondary to activation of the sympathetic nerves innervating the adrenal medulla, as it is rapid and not present in animals where the adrenal gland has been removed.[90] Although such stress triggers adrenaline release, it also activates many other responses within the central nervous system reward system which drives behavioral responses, so while the circulating adrenaline concentration is present, it may not drive behavior. Nevertheless, adrenaline infusion alone does increase alertness[91] and has roles in the brain including the augmentation of memory consolidation.[89]

Strength

Main article: Hysterical strength

Adrenaline has been implicated in feats of great strength, often occurring in times of crisis. For example, there are stories of a parent lifting part of a car when their child is trapped underneath.[92][93]

References

  1. ^ Andersen AM (1975). "Structural Studies of Metabolic Products of Dopamine. III. Crystal and Molecular Structure of (−)-Adrenaline". Acta Chem. Scand. 29b (2): 239–244. doi:10.3891/acta.chem.scand.29b-0239. PMID 1136652.
  2. ^ "Neffy- epinephrine spray". DailyMed. 20 August 2024. Retrieved 5 September 2024.
  3. ^ Cite error: The named reference Eurneffy EPAR was invoked but never defined (see the help page).
  4. ^ "Eurneffy Product information". Union Register of medicinal products. 23 August 2024. Retrieved 27 August 2024.
  5. ^ El-Bahr SM, Kahlbacher H, Patzl M, Palme RG (May 2006). "Binding and clearance of radioactive adrenaline and noradrenaline in sheep blood". Veterinary Research Communications. 30 (4). Springer Science and Business Media LLC: 423–32. doi:10.1007/s11259-006-3244-1. PMID 16502110. S2CID 9054777.
  6. ^ Franksson G, Anggård E (March 2009). "The plasma protein binding of amphetamine, catecholamines and related compounds". Acta Pharmacologica et Toxicologica. 28 (3). Wiley: 209–14. doi:10.1111/j.1600-0773.1970.tb00546.x. PMID 5468075.
  7. ^ Peaston RT, Weinkove C (January 2004). "Measurement of catecholamines and their metabolites". Annals of Clinical Biochemistry. 41 (Pt 1). SAGE Publications: 17–38. doi:10.1258/000456304322664663. PMID 14713382. S2CID 2330329.
  8. ^ a b c d "Epinephrine". The American Society of Health-System Pharmacists. Retrieved 15 August 2015.
  9. ^ Hummel MD (2012). "Emergency Medications". In Pollak AN (ed.). Nancy Caroline's Emergency Care in the Streets (7th ed.). Burlington: Jones & Bartlett Learning. p. 557. ISBN 9781449645861. Archived from the original on 8 September 2017.
  10. ^ a b c Lieberman M, Marks A, Peet A (2013). Marks' Basic Medical Biochemistry: A Clinical Approach (4th ed.). Philadelphia: Wolters Kluwer Health/Lippincott Williams & Wilkins. p. 175. ISBN 9781608315727.
  11. ^ "(-)-adrenaline". 21 August 2015.
  12. ^ a b c Malenka RC, Nestler EJ, Hyman SE (2009). "Chapter 6: Widely Projecting Systems: Monoamines, Acetylcholine, and Orexin". In Sydor A, Brown RY (eds.). Molecular Neuropharmacology: A Foundation for Clinical Neuroscience (2nd ed.). New York, USA: McGraw-Hill Medical. p. 157. ISBN 9780071481274. Epinephrine occurs in only a small number of central neurons, all located in the medulla. Epinephrine is involved in visceral functions, such as the control of respiration. It is also produced by the adrenal medulla.
  13. ^ Bell DR (2009). Medical physiology : principles for clinical medicine (3rd ed.). Philadelphia: Lippincott Williams & Wilkins. p. 312. ISBN 9780781768528.
  14. ^ a b Khurana (2008). Essentials of Medical Physiology. Elsevier India. p. 460. ISBN 9788131215661.
  15. ^ Buckley E (2013). Venomous Animals and Their Venoms: Venomous Vertebrates. Elsevier. p. 478. ISBN 9781483262888.
  16. ^ Animal Physiology: Adaptation and Environment (5th ed.). Cambridge University Press. 1997. p. 510. ISBN 9781107268500.
  17. ^ Szablewski, Leszek (2011). Glucose Homeostasis and Insulin Resistance. Bentham Science Publishers. p. 68. ISBN 9781608051892.
  18. ^ Everard ML (February 2009). "Acute bronchiolitis and croup". Pediatric Clinics of North America. 56 (1): 119–33, x–xi. doi:10.1016/j.pcl.2008.10.007. PMID 19135584.
  19. ^ Paradisis, M.; Osborn, D. A. (2004). "Adrenaline for prevention of morbidity and mortality in preterm infants with cardiovascular compromise". The Cochrane Database of Systematic Reviews (1): CD003958. doi:10.1002/14651858.CD003958.pub2. ISSN 1469-493X. PMID 14974048.
  20. ^ Rizzo V, Memmi M, Moratti R, Melzi d'Eril G, Perucca E (June 1996). "Concentrations of L-dopa in plasma and plasma ultrafiltrates". Journal of Pharmaceutical and Biomedical Analysis. 14 (8–10): 1043–6. doi:10.1016/s0731-7085(96)01753-0. PMID 8818013.
  21. ^ Fuller, R W (April 1982). "Pharmacology of Brain Epinephrine Neurons". Annual Review of Pharmacology and Toxicology. 22 (1): 31–55. doi:10.1146/annurev.pa.22.040182.000335. ISSN 0362-1642. PMID 6805416.
  22. ^ Cryer PE (August 1980). "Physiology and pathophysiology of the human sympathoadrenal neuroendocrine system". The New England Journal of Medicine. 303 (8): 436–44. doi:10.1056/nejm198008213030806. PMID 6248784.
  23. ^ Barger G, Dale HH (October 1910). "Chemical structure and sympathomimetic action of amines". The Journal of Physiology. 41 (1–2): 19–59. doi:10.1113/jphysiol.1910.sp001392. PMC 1513032. PMID 16993040.
  24. ^ Von Euler, US (1946). "A specific sympathomimetic ergone in adrenergic nerve fibres (sympathin) and its relations to adrenaline and nor adrenaline". Acta Physiol Scand. 12: 73–97. doi:10.1111/j.1748-1716.1946.tb00368.x.
  25. ^ Von Euler US, Hillarp NA (January 1956). "Evidence for the presence of noradrenaline in submicroscopic structures of adrenergic axons". Nature. 177 (4497): 44–5. Bibcode:1956Natur.177...44E. doi:10.1038/177044b0. PMID 13288591. S2CID 4214745.
  26. ^ Warren J (January 1986). "The adrenal medulla and the airway". British Journal of Diseases of the Chest. 80 (1): 1–6. doi:10.1016/0007-0971(86)90002-1. PMID 3004549.
  27. ^ Twentyman OP, Disley A, Gribbin HR, Alberti KG, Tattersfield AE (October 1981). "Effect of beta-adrenergic blockade on respiratory and metabolic responses to exercise". Journal of Applied Physiology. 51 (4): 788–93. doi:10.1152/jappl.1981.51.4.788. PMID 6795164.
  28. ^ Richter EA, Galbo H, Christensen NJ (January 1981). "Control of exercise-induced muscular glycogenolysis by adrenal medullary hormones in rats". Journal of Applied Physiology. 50 (1): 21–6. doi:10.1152/jappl.1981.50.1.21. PMID 7009527.
  29. ^ Canon, WB. (1931). "Studies on the conditions of activity in endocrine organs xxvii. Evidence that medulliadrenal secretion is not continuous". Am J Physiol. 98: 447–453. doi:10.1152/ajplegacy.1931.98.3.447.
  30. ^ Cryer PE, Tse TF, Clutter WE, Shah SD (August 1984). "Roles of glucagon and epinephrine in hypoglycemic and nonhypoglycemic glucose counterregulation in humans". The American Journal of Physiology. 247 (2 Pt 1): E198-205. doi:10.1152/ajpendo.1984.247.2.E198. PMID 6147094.
  31. ^ Hoelzer DR, Dalsky GP, Schwartz NS, Clutter WE, Shah SD, Holloszy JO, Cryer PE (July 1986). "Epinephrine is not critical to prevention of hypoglycemia during exercise in humans". The American Journal of Physiology. 251 (1 Pt 1): E104-10. doi:10.1152/ajpendo.1986.251.1.E104. PMID 3524257.
  32. ^ Hartman FA, Waite RH, McCordock HA (1922). "The liberation of epinephrine during muscular exercise". Am J Physiol. 62 (2): 225–241. doi:10.1152/ajplegacy.1922.62.2.225.
  33. ^ Von Euler US, Hellner S (September 1952). "Excretion of noradrenaline and adrenaline in muscular work". Acta Physiologica Scandinavica. 26 (2–3): 183–91. doi:10.1111/j.1748-1716.1952.tb00900.x. PMID 12985406.
  34. ^ Lund, A (1950). "Simultaneous fluorimetric determinations of adrenaline and noradrenaline in blood". Acta Pharmacologica et Toxicologica. 6 (2): 137–146. doi:10.1111/j.1600-0773.1950.tb03460.x. PMID 24537959.
  35. ^ Johnson GA, Kupiecki RM, Baker CA (November 1980). "Single isotope derivative (radioenzymatic) methods in the measurement of catecholamines". Metabolism. 29 (11 Suppl 1): 1106–13. doi:10.1016/0026-0495(80)90018-9. PMID 7001177.
  36. ^ Galbo H, Holst JJ, Christensen NJ (January 1975). "Glucagon and plasma catecholamine responses to graded and prolonged exercise in man". Journal of Applied Physiology. 38 (1): 70–6. doi:10.1152/jappl.1975.38.1.70. PMID 1110246.
  37. ^ Winder WW, Hagberg JM, Hickson RC, Ehsani AA, McLane JA (September 1978). "Time course of sympathoadrenal adaptation to endurance exercise training in man". Journal of Applied Physiology. 45 (3): 370–4. doi:10.1152/jappl.1978.45.3.370. PMID 701121.
  38. ^ Kindermann W, Schnabel A, Schmitt WM, Biro G, Hippchen M (May 1982). "[Catecholamines, GH, cortisol, glucagon, insulin, and sex hormones in exercise and beta 1-blockade (author's transl)]". Klinische Wochenschrift. 60 (10): 505–12. doi:10.1007/bf01756096. PMID 6124653. S2CID 30270788.
  39. ^ Warren JB, Dalton N, Turner C, Clark TJ, Toseland PA (January 1984). "Adrenaline secretion during exercise". Clinical Science. 66 (1): 87–90. doi:10.1042/cs0660087. PMID 6690194.
  40. ^ Fitzgerald GA, Barnes P, Hamilton CA, Dollery CT (October 1980). "Circulating adrenaline and blood pressure: the metabolic effects and kinetics of infused adrenaline in man". European Journal of Clinical Investigation. 10 (5): 401–6. doi:10.1111/j.1365-2362.1980.tb00052.x. PMID 6777175. S2CID 38894042.
  41. ^ Warren JB, Dalton N (May 1983). "A comparison of the bronchodilator and vasopressor effects of exercise levels of adrenaline in man". Clinical Science. 64 (5): 475–9. doi:10.1042/cs0640475. PMID 6831836.
  42. ^ Warren JB, Dalton N, Turner C, Clark TJ (November 1984). "Protective effect of circulating epinephrine within the physiologic range on the airway response to inhaled histamine in nonasthmatic subjects". The Journal of Allergy and Clinical Immunology. 74 (5): 683–6. doi:10.1016/0091-6749(84)90230-6. PMID 6389647.
  43. ^ Grossman M (1887). "Das muscarin-lungen-odem". Z Klin Med. 12: 550–591.
  44. ^ Jackson DE (1912). "The pulmonary action of the adrenal glands". J Pharmac Exp Therap. 4: 59–74.
  45. ^ Kagawa J, Kerr HD (February 1970). "Effects of brief graded exercise on specific airway conductance in normal subjects". Journal of Applied Physiology. 28 (2): 138–44. doi:10.1152/jappl.1970.28.2.138. PMID 5413299.
  46. ^ Warren JB, Jennings SJ, Clark TJ (January 1984). "Effect of adrenergic and vagal blockade on the normal human airway response to exercise". Clinical Science. 66 (1): 79–85. doi:10.1042/cs0660079. PMID 6228370.
  47. ^ Jennings SJ, Warren JB, Pride NB (July 1987). "Airway caliber and the work of breathing in humans". Journal of Applied Physiology. 63 (1): 20–4. doi:10.1152/jappl.1987.63.1.20. PMID 2957350.
  48. ^ a b Mezzacappa E, Katkin E, Palmer S (1999). "Epinephrine, arousal, and emotion: A new look at two-factor theory". Cognition and Emotion. 13 (2): 181–199. doi:10.1080/026999399379320.
  49. ^ a b Toth M, Ziegler M, Sun P, Gresack J, Risbrough V (February 2013). "Impaired conditioned fear response and startle reactivity in epinephrine-deficient mice". Behavioural Pharmacology. 24 (1): 1–9. doi:10.1097/FBP.0b013e32835cf408. PMC 3558035. PMID 23268986.
  50. ^ Cahill L, Alkire MT (March 2003). "Epinephrine enhancement of human memory consolidation: interaction with arousal at encoding". Neurobiology of Learning and Memory. 79 (2): 194–8. doi:10.1016/S1074-7427(02)00036-9. PMID 12591227. S2CID 12099979.
  51. ^ a b Dornelles A, de Lima MN, Grazziotin M, Presti-Torres J, Garcia VA, Scalco FS, Roesler R, Schröder N (July 2007). "Adrenergic enhancement of consolidation of object recognition memory". Neurobiology of Learning and Memory. 88 (1): 137–42. doi:10.1016/j.nlm.2007.01.005. PMID 17368053. S2CID 27697668.
  52. ^ Roozendaal B, McGaugh JL (December 2011). "Memory modulation". Behavioral Neuroscience. 125 (6): 797–824. doi:10.1037/a0026187. PMC 3236701. PMID 22122145.
  53. ^ Feldberg W, Minz B, Tsudzimura H (June 1934). "The mechanism of the nervous discharge of adrenaline". The Journal of Physiology. 81 (3): 286–304. doi:10.1113/jphysiol.1934.sp003136. PMC 1394156. PMID 16994544.
  54. ^ Burn JH, Hutcheon DE, Parker RH (September 1950). "Adrenaline and noradrenaline in the suprarenal medulla after insulin". British Journal of Pharmacology and Chemotherapy. 5 (3): 417–23. doi:10.1111/j.1476-5381.1950.tb00591.x. PMC 1509946. PMID 14777865.
  55. ^ Outschoorn AS (December 1952). "The hormones of the adrenal medulla and their release". British Journal of Pharmacology and Chemotherapy. 7 (4): 605–15. doi:10.1111/j.1476-5381.1952.tb00728.x. PMC 1509311. PMID 13019029.
  56. ^ Benedict CR, Grahame-Smith DG (August 1979). "Plasma adrenaline and noradrenaline concentrations and dopamine-beta-hydroxylase activity in myocardial infarction with and without cardiogenic shock". British Heart Journal. 42 (2): 214–20. doi:10.1136/hrt.42.2.214. PMC 482137. PMID 486283.
  57. ^ Nadeau RA, de Champlain J (November 1979). "Plasma catecholamines in acute myocardial infarction". American Heart Journal. 98 (5): 548–54. doi:10.1016/0002-8703(79)90278-3. PMID 495400.
  58. ^ Larsson S, Svedmyr N (1977). "Tremor caused by sympathomimetics is mediated by beta 2-adrenoceptors". Scand J Resp Dis. 58: 5–10.
  59. ^ Warren JB, O'Brien M, Dalton N, Turner CT (February 1984). "Sympathetic activity in benign familial tremor". Lancet. 1 (8374): 461–2. doi:10.1016/S0140-6736(84)91804-X. PMID 6142198. S2CID 36267406.
  60. ^ Wurtman RJ, Pohorecky LA, Baliga BS (June 1972). "Adrenocortical control of the biosynthesis of adrenaline and proteins in the adrenal medulla". Pharmacological Reviews. 24 (2): 411–26. PMID 4117970.
  61. ^ Wright A, Jones IC (June 1955). "Chromaffin tissue in the lizard adrenal gland". Nature. 175 (4466): 1001–2. Bibcode:1955Natur.175.1001W. doi:10.1038/1751001b0. PMID 14394091. S2CID 36742705.
  62. ^ Coupland RE (April 1953). "On the morphology and adrenaline-nor-adrenaline content of chromaffin tissue". The Journal of Endocrinology. 9 (2): 194–203. doi:10.1677/joe.0.0090194. PMID 13052791.
  63. ^ a b c Aronson JK (February 2000). ""Where name and image meet"--the argument for "adrenaline"". BMJ. 320 (7233): 506–9. doi:10.1136/bmj.320.7233.506. PMC 1127537. PMID 10678871.
  64. ^ "Naming human medicines – GOV.UK". www.mhra.gov.uk.
  65. ^ Rao Y., The First Hormone: Adrenaline. Trends in Endocrinology and Metabolism: TEM. 2019 Jun 30 (6):331-334. DOI: 10.1016/j.tem.2019.03.005.
  66. ^ Shen, Howard (2008). Illustrated Pharmacology Memory Cards: PharMnemonics. Minireview. p. 4. ISBN 978-1-59541-101-3.
  67. ^ Arnall DA, Marker JC, Conlee RK, Winder WW (June 1986). "Effect of infusing epinephrine on liver and muscle glycogenolysis during exercise in rats". The American Journal of Physiology. 250 (6 Pt 1): E641-9. doi:10.1152/ajpendo.1986.250.6.E641. PMID 3521311.
  68. ^ Raz I, Katz A, Spencer MK (March 1991). "Epinephrine inhibits insulin-mediated glycogenesis but enhances glycolysis in human skeletal muscle". The American Journal of Physiology. 260 (3 Pt 1): E430-5. doi:10.1152/ajpendo.1991.260.3.E430. PMID 1900669.
  69. ^ a b Sabyasachi Sircar (2007). Medical Physiology. Thieme Publishing Group. p. 536. ISBN 978-3-13-144061-7.
  70. ^ "Guideline 11.5: Medications in Adult Cardiac Arrest" (PDF). Australian Resuscitation Council. December 2010. Retrieved 7 March 2015.
  71. ^ Burnett AM, Segal N, Salzman JG, McKnite MS, Frascone RJ (August 2012). "Potential negative effects of adrenaline on carotid blood flow and ETCO2 during active compression-decompression CPR utilizing an impedance threshold device". Resuscitation. 83 (8): 1021–4. doi:10.1016/j.resuscitation.2012.03.018. PMID 22445865.
  72. ^ Raymondos K, Panning B, Leuwer M, Brechelt G, Korte T, Niehaus M, Tebbenjohanns J, Piepenbrock S (May 2000). "Absorption and hemodynamic effects of airway administration of adrenaline in patients with severe cardiac disease". Annals of Internal Medicine. 132 (10): 800–3. doi:10.7326/0003-4819-132-10-200005160-00007. PMID 10819703. S2CID 12713291.
  73. ^ Baselt, R. (2008). Disposition of Toxic Drugs and Chemicals in Man (8th ed.). Foster City, CA: Biomedical Publications. pp. 545–547. ISBN 978-0-9626523-7-0.
  74. ^ von Bohlen und Haibach O, Dermietzel R (2006). Neurotransmitters and Neuromodulators: Handbook of Receptors and Biological Effects. Wiley-VCH. p. 125. ISBN 978-3-527-31307-5.
  75. ^ Kirshner N, Goodall M (June 1957). "The formation of adrenaline from noradrenaline". Biochimica et Biophysica Acta. 24 (3): 658–9. doi:10.1016/0006-3002(57)90271-8. PMID 13436503.
  76. ^ Axelrod J (May 1962). "Purification and Properties of Phenylethanolamine-N-methyl Transferase". The Journal of Biological Chemistry. 237 (5): 1657–1660. PMID 13863458.
  77. ^ Broadley KJ (March 2010). "The vascular effects of trace amines and amphetamines". Pharmacology & Therapeutics. 125 (3): 363–375. doi:10.1016/j.pharmthera.2009.11.005. PMID 19948186.
  78. ^ Lindemann L, Hoener MC (May 2005). "A renaissance in trace amines inspired by a novel GPCR family". Trends in Pharmacological Sciences. 26 (5): 274–281. doi:10.1016/j.tips.2005.03.007. PMID 15860375.
  79. ^ Wang X, Li J, Dong G, Yue J (February 2014). "The endogenous substrates of brain CYP2D". European Journal of Pharmacology. 724: 211–218. doi:10.1016/j.ejphar.2013.12.025. PMID 24374199.
  80. ^ Nelson L, Cox M (2004). Lehninger Principles of Biochemistry (4th ed.). New York: Freeman. p. 908. ISBN 0-7167-4339-6.
  81. ^ "SLC18 family of vesicular amine transporters". Guide to Pharmacology. IUPHAR/BPS. Retrieved 21 August 2015.
  82. ^ "Adrenaline – Epinephrine". World of Molecules. Retrieved 7 March 2015.
  83. ^ Skalski JH, Kuch J (April 2006). "Polish thread in the history of circulatory physiology". Journal of Physiology and Pharmacology. 57 (Suppl 1): 5–41. PMID 16766800.
  84. ^ Bates WH (16 May 1896). "The Use of Extract of Suprarenal Capsule in the Eye". New York Medical Journal. Read before the Section in Ophthalmology of the New York Academy of Medicine, 20 April 1896: 647–650. Retrieved 7 March 2015.{{cite journal}}: CS1 maint: location (link)
  85. ^ Yamashima T (May 2003). "Jokichi Takamine (1854–1922), the samurai chemist, and his work on adrenalin". Journal of Medical Biography. 11 (2): 95–102. doi:10.1177/096777200301100211. PMID 12717538. S2CID 32540165.
  86. ^ a b Bennett MR (June 1999). "One hundred years of adrenaline: the discovery of autoreceptors". Clinical Autonomic Research. 9 (3): 145–59. doi:10.1007/BF02281628. PMID 10454061. S2CID 20999106.
  87. ^ Takamine J (1901). The isolation of the active principle of the suprarenal gland. Great Britain: Cambridge University Press. pp. xxix–xxx. {{cite book}}: |work= ignored (help)
  88. ^ Zuckerman M (2007). Sensation seeking and risky behavior (2. print. ed.). Washington, DC: American Psychological Association. ISBN 978-1591477389.
  89. ^ a b Jänig W (2006). The integrative action of the autonomic nervous system : neurobiology of homeostasis. Cambridge: UK. pp. 143–146. ISBN 9780521845182.
  90. ^ Deane W, Rubin B (1964). "Absence of adrenal meduallary secretions". The Adrenocortical Hormones Their Origin – Chemistry Physiology and Pharmacology. Berlin, Heidelberg: Springer Berlin Heidelberg. p. 105. ISBN 9783662131329.
  91. ^ Frankenhaeuser M, Jarpe G, Matell G (1961). "Effects of intravenous infusions of adrenaline and noradrenaline on certain psychological and physiological functions". Acta Physiologica Scandinavica. 51 (2–3): 175–86. doi:10.1111/j.1748-1716.1961.tb02126.x. PMID 13701421.
  92. ^ "When Fear Makes Us Superhuman". Scientific American. 28 December 2009. Retrieved 25 August 2015.
  93. ^ Wise J (2009). Extreme fear : the science of your mind in danger (1st ed.). New York: Palgrave Macmillan. ISBN 978-0230614390.
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