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{{short description|Foul-smelling organic chemical compound produced by the breakdown of amino acids}}
{{Short description|Foul-smelling organic chemical compound}}
{{Chembox
{{Chembox
| Verifiedfields = changed
|Verifiedfields = changed
| Watchedfields = changed
|Watchedfields = changed
| verifiedrevid = 408973251
|verifiedrevid = 408973251
| ImageFile1 = Diaminobutane.png
|ImageFile1 = Diaminobutane.svg
| ImageFile1_Ref = {{chemboximage|correct|??}}
|ImageFile1_Ref = {{chemboximage|correct|??}}
| ImageSize1 = 160
|ImageSize1 = 160
| ImageName1 = Skeletal formula of putrescine
|ImageName1 = Skeletal formula of putrescine
| ImageCaption1 = [[Skeletal formula]]
|ImageCaption1 = [[Skeletal formula]]
| ImageFile2 = Putrescine-3D-balls.png
|ImageFile2 = Putrescine-3D-balls.png
| ImageFile2_Ref = {{chemboximage|correct|??}}
|ImageFile2_Ref = {{chemboximage|correct|??}}
| ImageSize2 = 160
|ImageSize2 = 160
| ImageName2 = Ball and stick model of putrescine
|ImageName2 = Ball and stick model of putrescine
| ImageCaption2 = [[Ball-and-stick model]]<ref>{{ Cite journal | url = https://dx.doi.org/10.5517/cc4g850 | title = CSD Entry: QATWAJ : 1,4-Butanediamine | website = [[Cambridge Structural Database]]: Access Structures | publisher = [[Cambridge Crystallographic Data Centre]] | doi = 10.5517/cc4g850 | access-date = 2021-11-07 }}</ref><ref>{{ cite journal | title = The Melting Point Alternation in ''α'',''ω''-Alkanediols and ''α'',''ω''-Alkanediamines: Interplay between Hydrogen Bonding and Hydrophobic Interactions | first1 = V. R. | last1 = Thalladi | first2 = R. | last2 = Boese | first3 = H.-C. | last3 = Weiss | journal = [[Angewandte Chemie International Edition|Angew. Chem. Int. Ed.]] | year = 2000 | volume = 39 | issue = 5 | pages = 918-922 | doi = 10.1002/(SICI)1521-3773(20000303)39:5%3C918::AID-ANIE918%3E3.0.CO;2-E }}</ref>
|ImageCaption2 = [[Ball-and-stick model]]<ref>{{ Cite journal | url = https://dx.doi.org/10.5517/cc4g850 | title = CSD Entry: QATWAJ : 1,4-Butanediamine | website = [[Cambridge Structural Database]]: Access Structures | year = 2001 | publisher = [[Cambridge Crystallographic Data Centre]] | doi = 10.5517/cc4g850 |access-date = 2021-11-07 | last1 = Thalladi | first1 = V.R. | last2 = Boese | first2 = R. | last3 = Weiss | first3 = H.-C. }}</ref><ref>{{ cite journal | title = The Melting Point Alternation in ''α'',''ω''-Alkanediols and ''α'',''ω''-Alkanediamines: Interplay between Hydrogen Bonding and Hydrophobic Interactions | first1 = V. R. | last1 = Thalladi | first2 = R. | last2 = Boese | first3 = H.-C. | last3 = Weiss | journal = [[Angewandte Chemie International Edition|Angew. Chem. Int. Ed.]] | year = 2000 | volume = 39 | issue = 5 | pages = 918–922 | doi = 10.1002/(SICI)1521-3773(20000303)39:5<918::AID-ANIE918>3.0.CO;2-E | pmid = 10760893 }}</ref>
| PIN = Butane-1,4-diamine
|PIN = Butane-1,4-diamine
| OtherNames = 1,4-Diaminobutane, 1,4-Butanediamine
|OtherNames = 1,4-Diaminobutane, 1,4-Butanediamine
|Section1={{Chembox Identifiers
|Section1={{Chembox Identifiers
| CASNo = 110-60-1
|CASNo = 110-60-1
| CASNo_Ref = {{cascite|correct|CAS}}
|CASNo_Ref = {{cascite|correct|CAS}}
| UNII_Ref = {{fdacite|correct|FDA}}
|UNII_Ref = {{fdacite|correct|FDA}}
| UNII = V10TVZ52E4
|UNII = V10TVZ52E4
| PubChem = 1045
|PubChem = 1045
| ChemSpiderID = 13837702
|ChemSpiderID = 13837702
| ChemSpiderID_Ref = {{chemspidercite|correct|chemspider}}
|ChemSpiderID_Ref = {{chemspidercite|correct|chemspider}}
| EINECS = 203-782-3
|EINECS = 203-782-3
| UNNumber = 2928
|UNNumber = 2928
| DrugBank = DB01917
|DrugBank = DB01917
| DrugBank_Ref = {{drugbankcite|changed|drugbank}}
|DrugBank_Ref = {{drugbankcite|changed|drugbank}}
| KEGG = C00134 <!--C02896-->
|KEGG = C00134 <!--C02896-->
| KEGG_Ref = {{keggcite|correct|kegg}}
|KEGG_Ref = {{keggcite|correct|kegg}}
| MeSHName = Putrescine
|MeSHName = Putrescine
| ChEBI = 17148
|ChEBI = 17148
| ChEBI_Ref = {{ebicite|changed|EBI}}
|ChEBI_Ref = {{ebicite|changed|EBI}}
| ChEMBL = 46257
|ChEMBL = 46257
| ChEMBL_Ref = {{ebicite|correct|EBI}}
|ChEMBL_Ref = {{ebicite|correct|EBI}}
| IUPHAR_ligand = 2388
|IUPHAR_ligand = 2388
| RTECS = EJ6800000
|RTECS = EJ6800000
| Beilstein = 605282
|Beilstein = 605282
| Gmelin = 1715
|Gmelin = 1715
| 3DMet = B00037
|3DMet = B00037
| SMILES = NCCCCN
|SMILES = NCCCCN
| StdInChI = 1S/C4H12N2/c5-3-1-2-4-6/h1-6H2
|StdInChI = 1S/C4H12N2/c5-3-1-2-4-6/h1-6H2
| StdInChI_Ref = {{stdinchicite|correct|chemspider}}
|StdInChI_Ref = {{stdinchicite|correct|chemspider}}
| StdInChIKey = KIDHWZJUCRJVML-UHFFFAOYSA-N
|StdInChIKey = KIDHWZJUCRJVML-UHFFFAOYSA-N
| StdInChIKey_Ref = {{stdinchicite|correct|chemspider}}
|StdInChIKey_Ref = {{stdinchicite|correct|chemspider}}
}}
}}
|Section2={{Chembox Properties
|Section2={{Chembox Properties
| C=4 | H=12 | N=2
|C=4 | H=12 | N=2
| Appearance = Colourless crystals
|Appearance = Colourless crystals
| Odor = fishy-ammoniacal, pungent
|Odor = fishy-ammoniacal, pungent
| Density = 0.877 g/mL
|Density = 0.877 g/mL
| MeltingPtC = 27.5
|MeltingPtC = 27.5
| BoilingPtK = 431.7
|BoilingPtK = 431.7
| Solubility = Miscible
|Solubility = Miscible
| LogP = −0.466
|LogP = −0.466
| VaporPressure = 2.33 mm Hg at 25 deg C (est)
|VaporPressure = 2.33 mm Hg at 25 deg C (est)
| HenryConstant = 3.54x10<sup>−10</sup> atm-cu m/mol at 25 deg C (est)
|HenryConstant = 3.54x10<sup>−10</sup> atm-cu m/mol at 25 deg C (est)
| RefractIndex = 1.457
|RefractIndex = 1.457
}}
}}
|Section3={{Chembox Hazards
|Section3={{Chembox Hazards
| GHSPictograms = {{GHS flame}} {{GHS corrosion}} {{GHS skull and crossbones}}
|GHSPictograms = {{GHS flame}} {{GHS corrosion}} {{GHS skull and crossbones}}
| GHSSignalWord = '''DANGER'''
|GHSSignalWord = '''DANGER'''
| HPhrases = {{H-phrases|228|302|312|314|331}}
|HPhrases = {{H-phrases|228|302|312|314|331}}
| PPhrases = {{P-phrases|210|261|280|305+351+338|310}}
|PPhrases = {{P-phrases|210|261|280|305+351+338|310}}
| FlashPtC = 51
|FlashPtC = 51
| ExploLimits = 0.98–9.08%
|ExploLimits = 0.98–9.08%
| LD50 = {{Unbulleted list|463 mg kg<sup>−1</sup> <small>(oral, rat)</small>|1.576 g kg<sup>−1</sup> <small>(dermal, rabbit)</small>}}
|LD50 = {{Unbulleted list|463 mg kg<sup>−1</sup> <small>(oral, rat)</small>|1.576 g kg<sup>−1</sup> <small>(dermal, rabbit)</small>}}
}}
}}
|Section4={{Chembox Related
|Section4={{Chembox Related
| OtherFunction_label = alkanamines
|OtherFunction_label = alkanamines
| OtherFunction = {{Unbulleted list|[[Propylamine]]|[[Isopropylamine]]|[[1,2-Diaminopropane]]|[[1,3-Diaminopropane]]|[[Isobutylamine]]|[[tert-Butylamine|''tert''-Butylamine]]|[[n-Butylamine|''n''-Butylamine]]|[[sec-Butylamine|''sec''-Butylamine]]|[[1-Aminopentane]]|[[Cadaverine]]}}
|OtherFunction = {{Unbulleted list|[[Propylamine]]|[[Isopropylamine]]|[[1,2-Diaminopropane]]|[[1,3-Diaminopropane]]|[[Isobutylamine]]|[[tert-Butylamine|''tert''-Butylamine]]|[[n-Butylamine|''n''-Butylamine]]|[[sec-Butylamine|''sec''-Butylamine]]|[[1-Aminopentane]]|[[Cadaverine]]}}
| OtherCompounds = {{Unbulleted list|[[2-Methyl-2-nitrosopropane]]|[[Nylon 46]] }}
|OtherCompounds = {{Unbulleted list|[[2-Methyl-2-nitrosopropane]]|[[Nylon 46]] }}
}}
}}
}}
}}
'''Putrescine''' is an [[organic compound]] with the formula (CH<sub>2</sub>)<sub>4</sub>(NH<sub>2</sub>)<sub>2</sub>. It is a colorless solid that melts near room temperature. It is classified as a [[diamine]].<ref name=Ullmann>{{Ullmann|doi=10.1002/14356007.a02_001|title=Amines, Aliphatic|year=2000|last1=Eller|first1=Karsten|last2=Henkes|first2=Erhard|last3=Rossbacher|first3=Roland|last4=Höke|first4=Hartmut|isbn=3527306730}}</ref> Together with [[cadaverine]] it largely responsible for the foul odor of [[Putrefaction|putrefying]] flesh, but also contributes to other unpleasant odors.
'''Putrescine''' is an [[organic compound]] with the formula (CH<sub>2</sub>)<sub>4</sub>(NH<sub>2</sub>)<sub>2</sub>. It is a colorless solid that melts near room temperature. It is classified as a [[diamine]].<ref name=Ullmann>{{Ullmann|doi=10.1002/14356007.a02_001|title=Amines, Aliphatic|year=2000|last1=Eller|first1=Karsten|last2=Henkes|first2=Erhard|last3=Rossbacher|first3=Roland|last4=Höke|first4=Hartmut|isbn=3527306730}}</ref> Together with [[cadaverine]], it is largely responsible for the foul odor of [[Putrefaction|putrefying]] flesh, but also contributes to other unpleasant odors.


==Production==
==Production==
Putrescine is produced on an industrial scale by the [[hydrogenation]] of [[succinonitrile]].<ref name=Ullmann/>
Putrescine is produced on an industrial scale by the [[hydrogenation]] of [[succinonitrile]].<ref name=Ullmann/>


Biotechnological production of putrescine from renewable feedstock has been investigated. A metabolically engineered strain of ''[[Escherichia coli]]'' that produces putrescine at high titer in glucose mineral salts medium has been described.<ref name="Metabolic Engineering of Escherichia coli for the Production of Putrescine: A Four Carbon Diamine">{{cite journal
Biotechnological production of putrescine from a renewable feedstock has been investigated. A metabolically engineered strain of ''[[Escherichia coli]]'' that produces putrescine at high concentrations in glucose mineral salts medium has been described.<ref name="Metabolic Engineering of Escherichia coli for the Production of Putrescine: A Four Carbon Diamine">{{cite journal| title = Metabolic Engineering of Escherichia coli for the Production of Putrescine: A Four Carbon Diamine| doi = 10.1002/bit.22502
| year = 2009| journal = Biotechnology and Bioengineering | last1 = Qian | first1 = Zhi-Gang | last2 = Xia | first2 = Xiao-Xia | last3 = Yup Lee | first3 = Sang| volume = 104| issue = 4| pages = 651–662| pmid = 19714672| doi-access = free}}</ref>
| title = Metabolic Engineering of Escherichia coli for the Production of Putrescine: A Four Carbon Diamine
| doi = 10.1002/bit.22502
| year = 2009
| journal = Biotechnology and Bioengineering
| last1 = Qian | first1 = Zhi-Gang | last2 = Xia | first2 = Xiao-Xia | last3 = Yup Lee | first3 = Sang| volume = 104
| issue = 4
| pages = 651–662
| pmid = 19714672
| doi-access = free
}}</ref>


==Biochemistry==
==Biochemistry==
[[File:Polyamine synthesis.png|left|thumb|400x400px|Biosynthesis of spermidine and spermine from putrescine. Ado = 5'-adenosyl.]]
[[File:Polyamine synthesis.svg|left|thumb|400x400px|Biosynthesis of spermidine and spermine from putrescine. Ado = 5'-adenosyl.]]
[[Spermidine synthase]] uses putrescine and [[S-Adenosylmethioninamine|''S''-adenosylmethioninamine]] (decarboxylated [[S-Adenosyl methionine|''S''-adenosyl methionine]]) to produce [[spermidine]]. Spermidine in turn is combined with another ''S''-adenosylmethioninamine and gets converted to [[spermine]].
[[Spermidine synthase]] uses putrescine and [[S-Adenosylmethioninamine|''S''-adenosylmethioninamine]] (decarboxylated [[S-Adenosyl methionine|''S''-adenosyl methionine]]) to produce [[spermidine]]. Spermidine in turn is combined with another ''S''-adenosylmethioninamine and gets converted to [[spermine]].


Putrescine is synthesized in small quantities by healthy living cells by the action of [[ornithine decarboxylase]].
Putrescine is synthesized in small quantities by healthy living cells by the action of [[ornithine decarboxylase]].


Putrescine is synthesized biologically via two different pathways, both starting from [[arginine]].
Putrescine is synthesized biologically via two different pathways, both starting from [[arginine]].

* In one pathway, arginine is converted into [[agmatine]]. The conversion iiss catalyzed by the enzyme [[arginine decarboxylase]] (ADC). Agmatine is transformed into [[N-carbamoylputrescine]] by [[Agmatine deiminase|agmatine imino hydroxylase]] (AIH). Finally, N-carbamoylputrescine is hydrolyzed to give putrescine.<ref>{{cite journal|pmid=6895223|title=Enzymic conversion of agmatine to putrescine in Lathyrus sativus seedlings. Purification and properties of a multifunctional enzyme (putrescine synthase). | volume=256 | issue=18|date=September 1981|pages=9532–41|author=Srivenugopal KS, Adiga PR|journal=J. Biol. Chem.|doi=10.1016/S0021-9258(19)68795-8 |doi-access=free }}</ref>
* In one pathway, arginine is converted into [[agmatine]]. The conversion is catalyzed by the enzyme [[arginine decarboxylase]] (ADC). Agmatine is transformed into N-carbamoylputrescine by [[Agmatine deiminase|agmatine imino hydroxylase]] (AIH). Finally, N-carbamoylputrescine is hydrolyzed to give putrescine.<ref>{{cite journal|pmid=6895223|title=Enzymic conversion of agmatine to putrescine in Lathyrus sativus seedlings. Purification and properties of a multifunctional enzyme (putrescine synthase). | volume=256 | issue=18|date=September 1981|pages=9532–41|author=Srivenugopal KS, Adiga PR|journal=J. Biol. Chem.|doi=10.1016/S0021-9258(19)68795-8 |doi-access=free}}</ref>
* In the second pathway, arginine is converted into [[ornithine]] and then ornithine is converted into putrescine by [[ornithine decarboxylase]] (ODC).
* In the second pathway, arginine is converted into [[ornithine]] and then ornithine is converted into putrescine by [[ornithine decarboxylase]] (ODC).

Putrescine, via [[metabolic intermediate]]s including [[N-acetylputrescine|''N''-acetylputrescine]], [[gamma-Aminobutyraldehyde|γ-aminobutyraldehyde]] (GABAL), [[N-acetyl-γ-aminobutyric acid|''N''-acetyl-γ-aminobutyric acid]] (''N''-acetyl-GABAL), and [[N-acetyl-γ-aminobutyric acid|''N''-acetyl-γ-aminobutyric acid]] (''N''-acetyl-GABA), [[biotransformation]]s mediated by [[diamine oxidase]] (DAO), [[monoamine oxidase B]] (MAO-B), [[aminobutyraldehyde dehydrogenase]] (ABALDH), and other [[enzyme]]s, can act as a minor [[precursor (biochemistry)|biological precursor]] of [[γ-aminobutyric acid]] (GABA) in the [[brain]] and elsewhere.<ref name="RashmiZananJohn2018">{{cite book | last1=Rashmi | first1=Deo | last2=Zanan | first2=Rahul | last3=John | first3=Sheeba | last4=Khandagale | first4=Kiran | last5=Nadaf | first5=Altafhusain | title=Studies in Natural Products Chemistry | chapter=γ-Aminobutyric Acid (GABA): Biosynthesis, Role, Commercial Production, and Applications | publisher=Elsevier | volume=57 | date=2018 | isbn=978-0-444-64057-4 | doi=10.1016/b978-0-444-64057-4.00013-2 | pages=413–452 | url=https://www.researchgate.net/publication/324580560 | quote=Alternate pathways of GABA synthesis from putrescine and other polyamines have also been reported [207–211]. Here, γ-aminobutyraldehyde, an intermediate from polyamine degradation reaction via combined activities of diamine oxidase (DAO, E.C. 1.4.3.6) and 4-aminobutyraldehyde dehydrogenase (ABALDH), leads to the synthesis of GABA [205,212,213]. In response to abiotic stresses, GABA is also reported to be synthesized from proline via D1-pyrroline intermediate formation [47,205,214] and also by a nonenzymatic reaction [214]. However, GABA synthesis from polyamine pathways is minor in the brain, [215] although they play a significant role in the developing brain [216] and retina [217]. But GABA can be formed from putrescine in the mammalian brain [218].}}</ref><ref name="ShelpBozzoTrobacher2012">{{cite journal | vauthors = Shelp BJ, Bozzo GG, Trobacher CP, Zarei A, Deyman KL, Brikis CJ | title = Hypothesis/review: contribution of putrescine to 4-aminobutyrate (GABA) production in response to abiotic stress | journal = Plant Sci | volume = 193-194 | issue = | pages = 130–135 | date = September 2012 | pmid = 22794926 | doi = 10.1016/j.plantsci.2012.06.001 | bibcode = 2012PlnSc.193..130S | url = }}</ref><ref name="BenedettiDostert1994">{{cite journal | vauthors = Benedetti MS, Dostert P | title = Contribution of amine oxidases to the metabolism of xenobiotics | journal = Drug Metab Rev | volume = 26 | issue = 3 | pages = 507–535 | date = 1994 | pmid = 7924902 | doi = 10.3109/03602539408998316 | url = | quote = MAO also catalyses the deamination of a natural brain constituent, monoacetyl-putrescine, producing y-acetylaminobutyraldehyde, which in turn participates in the formation of brain GABA [13].}}</ref><ref name="WatanabeMaemuraKanbara2002">{{cite book | vauthors = Watanabe M, Maemura K, Kanbara K, Tamayama T, Hayasaki H | title = A Survey of Cell Biology | chapter = GABA and GABA Receptors in the Central Nervous System and Other Organs | series = International Review of Cytology | volume = 213 | pages = 1–47 | date = 2002 | pmid = 11837891 | doi = 10.1016/s0074-7696(02)13011-7 | isbn = 978-0-12-364617-0 | url = }}</ref><ref name="Seiler2004">{{cite journal | vauthors = Seiler N | title = Catabolism of polyamines | journal = Amino Acids | volume = 26 | issue = 3 | pages = 217–233 | date = June 2004 | pmid = 15221502| doi = 10.1007/s00726-004-0070-z | url = }}</ref><ref name="ChoKimSim2021">{{cite journal | vauthors = Cho HU, Kim S, Sim J, Yang S, An H, Nam MH, Jang DP, Lee CJ | title = Redefining differential roles of MAO-A in dopamine degradation and MAO-B in tonic GABA synthesis | journal = Exp Mol Med | volume = 53 | issue = 7 | pages = 1148–1158 | date = July 2021 | pmid = 34244591 | pmc = 8333267 | doi = 10.1038/s12276-021-00646-3 | url = }}</ref> In 2021, it was discovered that MAO-B does not mediate [[dopamine]] [[catabolism]] in the rodent [[striatum]] but instead participates in striatal GABA synthesis and that synthesized GABA in turn inhibits [[dopaminergic]] [[neuron]]s in this brain area.<ref name="NamSaJu2022">{{cite journal | vauthors = Nam MH, Sa M, Ju YH, Park MG, Lee CJ | title = Revisiting the Role of Astrocytic MAOB in Parkinson's Disease | journal = Int J Mol Sci | volume = 23 | issue = 8 | date = April 2022 | page = 4453 | pmid = 35457272 | pmc = 9028367 | doi = 10.3390/ijms23084453 | doi-access = free | url = }}</ref><ref name="ChoKimSim2021" /> It has been found that MAO-B, via the putrescine pathway, importantly mediates GABA synthesis in [[astrocyte]]s in various brain areas, including in the [[hippocampus]], [[cerebellum]], striatum, [[cerebral cortex]], and [[substantia nigra pars compacta]] (SNpc).<ref name="NamSaJu2022" /><ref name="ChoKimSim2021" />


==Occurrence==
==Occurrence==
Putrescine is found in all [[organism]]s.<ref name=":0">{{Cite journal |last1=Cui |first1=Jing |last2=Pottosin |first2=Igor |last3=Lamade |first3=Emmanuelle |last4=Tcherkez |first4=Guillaume |date=June 2020 |title=What is the role of putrescine accumulated under potassium deficiency? |url=https://onlinelibrary.wiley.com/doi/10.1111/pce.13740 |journal=Plant, Cell & Environment |language=en |volume=43 |issue=6 |pages=1331–1347 |doi=10.1111/pce.13740 |pmid=32017122 |s2cid=211023002 |issn=0140-7791}}</ref> Putrescine is widely found in plant tissues,<ref name=":0"/> often being the most common polyamine present within the organism. Its role in development is well documented, but recent studies have suggested that putrescine also plays a role in stress responses in plants, both to biotic and abiotic stressors.<ref>{{Cite journal |last1=González-Hernández |first1=Ana Isabel |last2=Scalschi |first2=Loredana |last3=Vicedo |first3=Begonya |last4=Marcos-Barbero |first4=Emilio Luis |last5=Morcuende |first5=Rosa |last6=Camañes |first6=Gemma |date=January 2022 |title=Putrescine: A Key Metabolite Involved in Plant Development, Tolerance and Resistance Responses to Stress |journal=International Journal of Molecular Sciences |language=en |volume=23 |issue=6 |pages=2971 |doi=10.3390/ijms23062971 |issn=1422-0067 |pmc=8955586 |pmid=35328394|doi-access=free}}</ref> The absence of putrescine in plants is associated with an increase in both parasite and fungal population in plants.
Putrescine is a component of [[bad breath]] and [[bacterial vaginosis]].<ref>{{cite journal|authors=Yeoman, CJ;Thomas, SM; Miller, ME; Ulanov, AV; Torralba, M; Lucas, S; Gillis, M; Cregger, M; Gomez, A; Ho, M; Leigh, SR; Stumpf, R; Creedon, DJ; Smith, MA; Weisbaum, JS; Nelson, KE; Wilson, BA; White, BA|title=A multi-omic systems-based approach reveals metabolic markers of bacterial vaginosis and insight into the disease.|journal=PLOS ONE|year=2013|volume=8|issue=2|pages=e56111|doi=10.1371/journal.pone.0056111|pmid=23405259|pmc=3566083|bibcode=2013PLoSO...856111Y|doi-access=free}}</ref> They are also found in [[semen]] and some microalgae, together with [[spermine]] and [[spermidine]]. It is one of the simplest, appear to be factors necessary for proper eukaryotic cell division.

Putrescine serves an important role in a multitude of ways, which include: a [[Ion|cation]] substitute, an [[osmolyte]], or a transport protein.<ref name=":0" /> It also serves as an important regulator in a variety of surface proteins, both on the cell surface and on organelles, such as the mitochondria and chloroplasts. A recorded increase of ATP production has been found in mitochondria and ATP synthesis by chloroplasts with an increase in mitochondrial and chloroplastic putrescine, but putrescine has also been shown to function as a developmental inhibitor in some plants, which can be seen as [[dwarfism]] and late flowering in ''Arabiadopsis'' plants.<ref name=":0" />

Putrescine production in plants can also be promoted by fungi in the soil.<ref>{{Cite journal |last=Copeland |first=Charles |date=2022-04-01 |title=The feeling is mutual: Increased host putrescine biosynthesis promotes both plant and endophyte growth |url=https://doi.org/10.1093/plphys/kiac001 |journal=Plant Physiology |volume=188 |issue=4 |pages=1939–1941 |doi=10.1093/plphys/kiac001 |issn=0032-0889 |pmc=8968283 |pmid=35355052}}</ref> [[Piriformospora indica]] (''P.&nbsp;indica'') is one such fungus, found to promote putrescine production in ''[[Arabidopsis]]'' and common garden tomato plants. In a 2022 study it was shown that the presence of this fungus had a promotional effect on the growth of the root structure of plants. After [[gas chromatography]] testing, putrescine was found in higher amounts in these root structures.<ref name=":1">{{Cite journal |last1=Ioannidis |first1=Nikolaos E. |last2=Cruz |first2=Jeffrey A. |last3=Kotzabasis |first3=Kiriakos |last4=Kramer |first4=David M. |date=2012-01-12 |title=Evidence That Putrescine Modulates the Higher Plant Photosynthetic Proton Circuit |journal=PLOS ONE |language=en |volume=7 |issue=1 |pages=e29864 |doi=10.1371/journal.pone.0029864 |issn=1932-6203 |pmc=3257247 |pmid=22253808|bibcode=2012PLoSO...729864I |doi-access=free }}</ref>

Plants that had been inoculated with ''P.&nbsp;indica'' had presented an excess of arginine decarboxylase.<ref name=":1" /> This is used in the process of making putrescine in plant cells. One of the downstream effects of putrescine in root cells is the production of [[auxin]]. That same study found that putrescine added as a fertilizer showed the same results as if it was inoculated with the fungus, which was also shown in ''Arabidopsis'' and [[barley]]. The evolutionary foundations of this connection and putrescine are still unclear.

Putrescine is a component of [[bad breath]] and [[bacterial vaginosis]].<ref>{{cite journal|author1=Yeoman, CJ |author2=Thomas, SM |author3=Miller, ME |author4=Ulanov, AV |author5=Torralba, M |author6=Lucas, S |author7=Gillis, M |author8=Cregger, M |author9=Gomez, A |author10=Ho, M |author11=Leigh, SR |author12=Stumpf, R |author13=Creedon, DJ |author14=Smith, MA |author15=Weisbaum, JS |author16=Nelson, KE |author17=Wilson, BA |author18=White, BA |title=A multi-omic systems-based approach reveals metabolic markers of bacterial vaginosis and insight into the disease.|journal=PLOS ONE|year=2013|volume=8|issue=2|pages=e56111|doi=10.1371/journal.pone.0056111|pmid=23405259|pmc=3566083|bibcode=2013PLoSO...856111Y|doi-access=free}}</ref> It is also found in [[semen]] and some microalgae, together with [[spermine]] and [[spermidine]].


== Uses ==
== Uses ==
It reacts with [[adipic acid]] to yield the [[polyamide]] [[Nylon 46]], which is marketed by [[DSM (company)|DSM]] under the trade name Stanyl.<ref>{{cite web |url=http://www.dsm.com/markets/automotive/en_US/applications/automotive-ee/electronic-control-modules.html |title=Electronic Control Modules (ECU) - Electrical & Electronics - Applications - DSM |newspaper=Dsm.com |access-date= 18 December 2015}}</ref>
Putrescine reacts with [[adipic acid]] to yield the [[polyamide]] [[nylon 46]], which is marketed by [[Envalior]] (formerly [[DSM (company)|DSM]]) under the trade name Stanyl.<ref>{{cite web |url=http://www.dsm.com/products/stanyl/en_US/home.html|archive-url=https://web.archive.org/web/20170925055608/http://www.dsm.com/products/stanyl/en_US/home.html |title=Stanyl® |publisher=[[DSM (company)|DSM]] |archive-date= 25 September 2017}}</ref><ref>{{cite web |url=https://www.envalior.com/en-us/products/stanyl.html |title=PA46 - Stanyl® |publisher=[[Envalior]] |access-date= 28 August 2024}}</ref>


Application of putrescine, along with other polyamines, can be used to extend the shelf life of fruits by delaying the ripening process.<ref>{{Cite journal|last=Abbasi|first=Nadeem Akhtar|last2=Ali|first2=Irfan|last3=Hafiz|first3=Ishfaq Ahmad|last4=Alenazi|first4=Mekhled M.|last5=Shafiq|first5=Muhammad|date=January 2019|title=Effects of Putrescine Application on Peach Fruit during Storage|url=https://www.mdpi.com/2071-1050/11/7/2013|journal=Sustainability|language=en|volume=11|issue=7|pages=2013|doi=10.3390/su11072013}}</ref> Pre-harvest application of putrescine has been shown to increase plant resistance to high temperatures and drought.<ref>{{Cite journal|last=Todorov|first=D.|last2=Alexieva|first2=V.|last3=Karanov|first3=E.|date=1998-12-01|title=Effect of Putrescine, 4-PU-30, and Abscisic Acid on Maize Plants Grown under Normal, Drought, and Rewatering Conditions|url=https://doi.org/10.1007/PL00007035|journal=Journal of Plant Growth Regulation|language=en|volume=17|issue=4|pages=197–203|doi=10.1007/PL00007035|issn=1435-8107}}</ref> Both of these effects seem to result from lowered ethylene production following exogenous putrescine exposure.<ref>{{Cite journal|last=Khan|first=A.S.|last2=Z. Singh|date=May 2008|title=INFLUENCE OF PRE AND POSTHARVEST APPLICATIONS OF PUTRESCINE ON ETHYLENE PRODUCTION, STORAGE LIFE AND QUALITY OF 'ANGELINO' PLUM|url=https://www.actahort.org/books/768/768_14.htm|journal=Acta Horticulturae|issue=768|pages=125–133|doi=10.17660/ActaHortic.2008.768.14|issn=0567-7572}}</ref>
Application of putrescine, along with other polyamines, can be used to extend the shelf life of fruits by delaying the ripening process.<ref>{{Cite journal|last1=Abbasi|first1=Nadeem Akhtar|last2=Ali|first2=Irfan|last3=Hafiz|first3=Ishfaq Ahmad|last4=Alenazi|first4=Mekhled M.|last5=Shafiq|first5=Muhammad|date=January 2019|title=Effects of Putrescine Application on Peach Fruit during Storage|journal=Sustainability|language=en|volume=11|issue=7|pages=2013|doi=10.3390/su11072013|doi-access=free}}</ref> Pre-harvest application of putrescine has been shown to increase plant resistance to high temperatures and drought.<ref>{{Cite journal|last1=Todorov|first1=D.|last2=Alexieva|first2=V.|last3=Karanov|first3=E.|date=1998-12-01|title=Effect of Putrescine, 4-PU-30, and Abscisic Acid on Maize Plants Grown under Normal, Drought, and Rewatering Conditions|url=https://doi.org/10.1007/PL00007035|journal=Journal of Plant Growth Regulation|language=en|volume=17|issue=4|pages=197–203|doi=10.1007/PL00007035|pmid=9892742|s2cid=20062811|issn=1435-8107}}</ref> Both of these effects seem to result from lowered ethylene production following exogenous putrescine exposure.<ref>{{Cite journal|last1=Khan|first1=A.S.|last2=Z. Singh|title=Influence of Pre and Postharvest Applications of Putrescine on Ethylene Production, Storage Life and Quality of 'Angelino' Plum|date=May 2008|url=https://www.actahort.org/books/768/768_14.htm|journal=Acta Horticulturae|issue=768|pages=125–133|doi=10.17660/ActaHortic.2008.768.14|issn=0567-7572}}</ref>


Due to its role in putrification, putrescine has also been proposed as a biochemical marker for determining how long a corpse has been decomposing.<ref>{{Cite journal|last=Pelletti|first=Guido|last2=Garagnani|first2=Marco|last3=Barone|first3=Rossella|last4=Boscolo-Berto|first4=Rafael|last5=Rossi|first5=Francesca|last6=Morotti|first6=Annalisa|last7=Roffi|first7=Raffaella|last8=Fais|first8=Paolo|last9=Pelotti|first9=Susi|date=2019-04-01|title=Validation and preliminary application of a GC–MS method for the determination of putrescine and cadaverine in the human brain: a promising technique for PMI estimation|url=https://www.sciencedirect.com/science/article/pii/S0379073819300283|journal=Forensic Science International|language=en|volume=297|pages=221–227|doi=10.1016/j.forsciint.2019.01.025|issn=0379-0738}}</ref>
Due to its role in putrification, putrescine has also been proposed as a biochemical marker for determining how long a corpse has been decomposing.<ref>{{Cite journal|last1=Pelletti|first1=Guido|last2=Garagnani|first2=Marco|last3=Barone|first3=Rossella|last4=Boscolo-Berto|first4=Rafael|last5=Rossi|first5=Francesca|last6=Morotti|first6=Annalisa|last7=Roffi|first7=Raffaella|last8=Fais|first8=Paolo|last9=Pelotti|first9=Susi|date=2019-04-01|title=Validation and preliminary application of a GC–MS method for the determination of putrescine and cadaverine in the human brain: a promising technique for PMI estimation|url=https://www.sciencedirect.com/science/article/pii/S0379073819300283|journal=Forensic Science International|language=en|volume=297|pages=221–227|doi=10.1016/j.forsciint.2019.01.025|pmid=30831414|s2cid=73461335|issn=0379-0738}}</ref>

Putrescine together with [[chitosan]] has been successfully used in [[postharvest]] physiology as a natural fruit coating.<ref name="FH">{{cite journal |first1= R |last1= Bahmani | first2= F |last2= Razavi | first3= S|last3= Mortazavi | first4= A |last4= Juárez-Maldonado | first5= G |last5= Gohari | title = Chitosan–putrescine nanoparticle coating attenuates postharvest decay and maintains ROS scavenging system activity of strawberry cv. 'Camarosa' during cold storage | journal = [[Folia Horticulturae]] | volume = 36 | issue = 1 | pages = 149–160 | date = February 2024 | pmid = | doi = 10.2478/fhort-2024-0009 | publisher = Polish Society of Horticultural Science | s2cid = 19887643 | doi-access = free }}</ref> Putrescine with chitosan treated fruits had higher antioxidant capacity and [[enzyme]] activities than untreated fruits. Fresh [[strawberry|strawberries]] coated have lower [[decomposition|decay]] percentage, higher tissue firmness, contents of [[total soluble solids]]. Nanoparticles of putrescine with chitosan are effective in preserving the nutritional quality and prolonging the post-harvest life of strawberries during storage up to 12 days.<ref name="FH"/>


==History==
==History==
Putrescine and [[cadaverine]] were first described in 1885 by the [[Berlin]] physician Ludwig Brieger (1849–1919).<ref>Brief biography of [http://www.sammlungen.hu-berlin.de/dokumente/14948/ Ludwig Brieger] (in German). Biography of [http://jewishencyclopedia.com/articles/3708-brieger-ludwig Ludwig Brieger] in English.</ref><ref>Ludwig Brieger, "Weitere Untersuchungen über Ptomaine" [Further investigations into ptomaines] (Berlin, Germany: August Hirschwald, 1885), [https://archive.org/details/weitereuntersuc00briegoog/page/n49 page 43]. From page 43: Ich nenne dasselbe Putrescin, von putresco, faul werden, vermodern, verwesen. (I call this [compound] "putrescine", from [the Latin word] ''putresco'', to become rotten, decay, rot.)</ref><ref>Ludwig Brieger, "Weitere Untersuchungen über Ptomaine" [Further investigations into ptomaines] (Berlin, Germany: August Hirschwald, 1885), [https://archive.org/details/weitereuntersuc00briegoog/page/n45 page 39].</ref>
Putrescine and [[cadaverine]] were first described in 1885 by the [[Berlin]] physician Ludwig Brieger (1849–1919).<ref>Brief biography of [http://www.sammlungen.hu-berlin.de/dokumente/14948/ Ludwig Brieger] {{Webarchive|url=https://web.archive.org/web/20111003041704/http://www.sammlungen.hu-berlin.de/dokumente/14948/ |date=2011-10-03}} (in German). Biography of [http://jewishencyclopedia.com/articles/3708-brieger-ludwig Ludwig Brieger] in English.</ref><ref>Ludwig Brieger, "Weitere Untersuchungen über Ptomaine" [Further investigations into ptomaines] (Berlin, Germany: August Hirschwald, 1885), [https://archive.org/details/weitereuntersuc00briegoog/page/n49 page 43]. From page 43: Ich nenne dasselbe Putrescin, von putresco, faul werden, vermodern, verwesen. (I call this [compound] "putrescine", from [the Latin word] ''putresco'', to become rotten, decay, rot.)</ref><ref>Ludwig Brieger, "Weitere Untersuchungen über Ptomaine" [Further investigations into ptomaines] (Berlin, Germany: August Hirschwald, 1885), [https://archive.org/details/weitereuntersuc00briegoog/page/n45 page 39].</ref>


==Toxicity==
==Toxicity==
In rats it has a low [[Acute toxicity|acute oral toxicity]] of 2000&nbsp;mg/kg body weight, with no-observed-adverse-effect level of 2000 ppm (180&nbsp;mg/kg body weight/day).<ref>{{cite journal |last1=Til|first1=H.P.|last2=Falke|first2=H.E.|last3=Prinsen|first3=M.K.|last4=Willems|first4=M.I.|title=Acute and subacute toxicity of tyramine, spermidine, spermine, putrescine and cadaverine in rats|journal=Food and Chemical Toxicology |volume=35|issue=3–4|year=1997|pages=337–348|issn=0278-6915|doi=10.1016/S0278-6915(97)00121-X|pmid=9207896}}</ref>
In rats, putrescine has a low [[Acute toxicity|acute oral toxicity]] of 2000&nbsp;mg/kg body weight, with no-observed-adverse-effect level of 2000 ppm (180&nbsp;mg/kg body weight/day).<ref>{{cite journal |last1=Til|first1=H.P.|last2=Falke|first2=H.E.|last3=Prinsen|first3=M.K.|last4=Willems|first4=M.I.|title=Acute and subacute toxicity of tyramine, spermidine, spermine, putrescine and cadaverine in rats|journal=Food and Chemical Toxicology |volume=35|issue=3–4|year=1997|pages=337–348|issn=0278-6915|doi=10.1016/S0278-6915(97)00121-X|pmid=9207896}}</ref>


==Further reading==
==Further reading==
* {{cite book | last =Haglund | first =William | title =Forensic taphonomy: The Postmortem Fate of Human Remains | publisher =CRC Press | year =1996 | isbn =0-8493-9434-1 | pages =[https://archive.org/details/forensictaphonom0000unse/page/100 100] | url-access =registration | url =https://archive.org/details/forensictaphonom0000unse/page/100 }}
* {{cite book | last =Haglund | first =William | title =Forensic taphonomy: The Postmortem Fate of Human Remains | publisher =CRC Press | year =1996 | isbn =0-8493-9434-1 | pages =[https://archive.org/details/forensictaphonom0000unse/page/100 100] | url-access =registration | url =https://archive.org/details/forensictaphonom0000unse/page/100}}



==References==
==References==
Line 127: Line 130:
* [http://gmd.mpimp-golm.mpg.de/Spectrums/cf58e7b1-7e8f-4734-90e3-965149b9f6ac.aspx Putrescine MS Spectrum]
* [http://gmd.mpimp-golm.mpg.de/Spectrums/cf58e7b1-7e8f-4734-90e3-965149b9f6ac.aspx Putrescine MS Spectrum]


{{Neurotransmitter metabolism intermediates}}
{{Amino acid metabolism intermediates}}
{{Amino acid metabolism intermediates}}
{{Ionotropic glutamate receptor modulators}}
{{Ionotropic glutamate receptor modulators}}
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[[Category:NMDA receptor antagonists]]
[[Category:NMDA receptor antagonists]]
[[Category:1,4-Butanediyl compounds]]
[[Category:1,4-Butanediyl compounds]]
[[Category:Substances discovered in the 19th century]]

Latest revision as of 19:05, 30 September 2024

Putrescine
Skeletal formula of putrescine
Ball and stick model of putrescine
Names
Preferred IUPAC name
Butane-1,4-diamine
Other names
1,4-Diaminobutane, 1,4-Butanediamine
Identifiers
3D model (JSmol)
3DMet
605282
ChEBI
ChEMBL
ChemSpider
DrugBank
ECHA InfoCard 100.003.440 Edit this at Wikidata
EC Number
  • 203-782-3
1715
KEGG
MeSH Putrescine
RTECS number
  • EJ6800000
UNII
UN number 2928
  • InChI=1S/C4H12N2/c5-3-1-2-4-6/h1-6H2 checkY
    Key: KIDHWZJUCRJVML-UHFFFAOYSA-N checkY
  • NCCCCN
Properties
C4H12N2
Molar mass 88.154 g·mol−1
Appearance Colourless crystals
Odor fishy-ammoniacal, pungent
Density 0.877 g/mL
Melting point 27.5 °C (81.5 °F; 300.6 K)
Boiling point 158.6 °C; 317.4 °F; 431.7 K
Miscible
log P −0.466
Vapor pressure 2.33 mm Hg at 25 deg C (est)
3.54x10−10 atm-cu m/mol at 25 deg C (est)
1.457
Hazards
GHS labelling:
GHS02: Flammable GHS05: Corrosive GHS06: Toxic
Danger
H228, H302, H312, H314, H331
P210, P261, P280, P305+P351+P338, P310
Flash point 51 °C (124 °F; 324 K)
Explosive limits 0.98–9.08%
Lethal dose or concentration (LD, LC):
  • 463 mg kg−1 (oral, rat)
  • 1.576 g kg−1 (dermal, rabbit)
Related compounds
Related alkanamines
Related compounds
Except where otherwise noted, data are given for materials in their standard state (at 25 °C [77 °F], 100 kPa).
☒N verify (what is checkY☒N ?)

Putrescine is an organic compound with the formula (CH2)4(NH2)2. It is a colorless solid that melts near room temperature. It is classified as a diamine.[3] Together with cadaverine, it is largely responsible for the foul odor of putrefying flesh, but also contributes to other unpleasant odors.

Production

[edit]

Putrescine is produced on an industrial scale by the hydrogenation of succinonitrile.[3]

Biotechnological production of putrescine from a renewable feedstock has been investigated. A metabolically engineered strain of Escherichia coli that produces putrescine at high concentrations in glucose mineral salts medium has been described.[4]

Biochemistry

[edit]
Biosynthesis of spermidine and spermine from putrescine. Ado = 5'-adenosyl.

Spermidine synthase uses putrescine and S-adenosylmethioninamine (decarboxylated S-adenosyl methionine) to produce spermidine. Spermidine in turn is combined with another S-adenosylmethioninamine and gets converted to spermine.

Putrescine is synthesized in small quantities by healthy living cells by the action of ornithine decarboxylase.

Putrescine is synthesized biologically via two different pathways, both starting from arginine.

Putrescine, via metabolic intermediates including N-acetylputrescine, γ-aminobutyraldehyde (GABAL), N-acetyl-γ-aminobutyric acid (N-acetyl-GABAL), and N-acetyl-γ-aminobutyric acid (N-acetyl-GABA), biotransformations mediated by diamine oxidase (DAO), monoamine oxidase B (MAO-B), aminobutyraldehyde dehydrogenase (ABALDH), and other enzymes, can act as a minor biological precursor of γ-aminobutyric acid (GABA) in the brain and elsewhere.[6][7][8][9][10][11] In 2021, it was discovered that MAO-B does not mediate dopamine catabolism in the rodent striatum but instead participates in striatal GABA synthesis and that synthesized GABA in turn inhibits dopaminergic neurons in this brain area.[12][11] It has been found that MAO-B, via the putrescine pathway, importantly mediates GABA synthesis in astrocytes in various brain areas, including in the hippocampus, cerebellum, striatum, cerebral cortex, and substantia nigra pars compacta (SNpc).[12][11]

Occurrence

[edit]

Putrescine is found in all organisms.[13] Putrescine is widely found in plant tissues,[13] often being the most common polyamine present within the organism. Its role in development is well documented, but recent studies have suggested that putrescine also plays a role in stress responses in plants, both to biotic and abiotic stressors.[14] The absence of putrescine in plants is associated with an increase in both parasite and fungal population in plants.

Putrescine serves an important role in a multitude of ways, which include: a cation substitute, an osmolyte, or a transport protein.[13] It also serves as an important regulator in a variety of surface proteins, both on the cell surface and on organelles, such as the mitochondria and chloroplasts. A recorded increase of ATP production has been found in mitochondria and ATP synthesis by chloroplasts with an increase in mitochondrial and chloroplastic putrescine, but putrescine has also been shown to function as a developmental inhibitor in some plants, which can be seen as dwarfism and late flowering in Arabiadopsis plants.[13]

Putrescine production in plants can also be promoted by fungi in the soil.[15] Piriformospora indica (P. indica) is one such fungus, found to promote putrescine production in Arabidopsis and common garden tomato plants. In a 2022 study it was shown that the presence of this fungus had a promotional effect on the growth of the root structure of plants. After gas chromatography testing, putrescine was found in higher amounts in these root structures.[16]

Plants that had been inoculated with P. indica had presented an excess of arginine decarboxylase.[16] This is used in the process of making putrescine in plant cells. One of the downstream effects of putrescine in root cells is the production of auxin. That same study found that putrescine added as a fertilizer showed the same results as if it was inoculated with the fungus, which was also shown in Arabidopsis and barley. The evolutionary foundations of this connection and putrescine are still unclear.

Putrescine is a component of bad breath and bacterial vaginosis.[17] It is also found in semen and some microalgae, together with spermine and spermidine.

Uses

[edit]

Putrescine reacts with adipic acid to yield the polyamide nylon 46, which is marketed by Envalior (formerly DSM) under the trade name Stanyl.[18][19]

Application of putrescine, along with other polyamines, can be used to extend the shelf life of fruits by delaying the ripening process.[20] Pre-harvest application of putrescine has been shown to increase plant resistance to high temperatures and drought.[21] Both of these effects seem to result from lowered ethylene production following exogenous putrescine exposure.[22]

Due to its role in putrification, putrescine has also been proposed as a biochemical marker for determining how long a corpse has been decomposing.[23]

Putrescine together with chitosan has been successfully used in postharvest physiology as a natural fruit coating.[24] Putrescine with chitosan treated fruits had higher antioxidant capacity and enzyme activities than untreated fruits. Fresh strawberries coated have lower decay percentage, higher tissue firmness, contents of total soluble solids. Nanoparticles of putrescine with chitosan are effective in preserving the nutritional quality and prolonging the post-harvest life of strawberries during storage up to 12 days.[24]

History

[edit]

Putrescine and cadaverine were first described in 1885 by the Berlin physician Ludwig Brieger (1849–1919).[25][26][27]

Toxicity

[edit]

In rats, putrescine has a low acute oral toxicity of 2000 mg/kg body weight, with no-observed-adverse-effect level of 2000 ppm (180 mg/kg body weight/day).[28]

Further reading

[edit]
  • Haglund, William (1996). Forensic taphonomy: The Postmortem Fate of Human Remains. CRC Press. pp. 100. ISBN 0-8493-9434-1.

References

[edit]
  1. ^ Thalladi, V.R.; Boese, R.; Weiss, H.-C. (2001). "CSD Entry: QATWAJ : 1,4-Butanediamine". Cambridge Structural Database: Access Structures. Cambridge Crystallographic Data Centre. doi:10.5517/cc4g850. Retrieved 2021-11-07.
  2. ^ Thalladi, V. R.; Boese, R.; Weiss, H.-C. (2000). "The Melting Point Alternation in α,ω-Alkanediols and α,ω-Alkanediamines: Interplay between Hydrogen Bonding and Hydrophobic Interactions". Angew. Chem. Int. Ed. 39 (5): 918–922. doi:10.1002/(SICI)1521-3773(20000303)39:5<918::AID-ANIE918>3.0.CO;2-E. PMID 10760893.
  3. ^ a b Eller, Karsten; Henkes, Erhard; Rossbacher, Roland; Höke, Hartmut (2000). "Amines, Aliphatic". Ullmann's Encyclopedia of Industrial Chemistry. Weinheim: Wiley-VCH. doi:10.1002/14356007.a02_001. ISBN 3527306730.
  4. ^ Qian, Zhi-Gang; Xia, Xiao-Xia; Yup Lee, Sang (2009). "Metabolic Engineering of Escherichia coli for the Production of Putrescine: A Four Carbon Diamine". Biotechnology and Bioengineering. 104 (4): 651–662. doi:10.1002/bit.22502. PMID 19714672.
  5. ^ Srivenugopal KS, Adiga PR (September 1981). "Enzymic conversion of agmatine to putrescine in Lathyrus sativus seedlings. Purification and properties of a multifunctional enzyme (putrescine synthase)". J. Biol. Chem. 256 (18): 9532–41. doi:10.1016/S0021-9258(19)68795-8. PMID 6895223.
  6. ^ Rashmi, Deo; Zanan, Rahul; John, Sheeba; Khandagale, Kiran; Nadaf, Altafhusain (2018). "γ-Aminobutyric Acid (GABA): Biosynthesis, Role, Commercial Production, and Applications". Studies in Natural Products Chemistry. Vol. 57. Elsevier. pp. 413–452. doi:10.1016/b978-0-444-64057-4.00013-2. ISBN 978-0-444-64057-4. Alternate pathways of GABA synthesis from putrescine and other polyamines have also been reported [207–211]. Here, γ-aminobutyraldehyde, an intermediate from polyamine degradation reaction via combined activities of diamine oxidase (DAO, E.C. 1.4.3.6) and 4-aminobutyraldehyde dehydrogenase (ABALDH), leads to the synthesis of GABA [205,212,213]. In response to abiotic stresses, GABA is also reported to be synthesized from proline via D1-pyrroline intermediate formation [47,205,214] and also by a nonenzymatic reaction [214]. However, GABA synthesis from polyamine pathways is minor in the brain, [215] although they play a significant role in the developing brain [216] and retina [217]. But GABA can be formed from putrescine in the mammalian brain [218].
  7. ^ Shelp BJ, Bozzo GG, Trobacher CP, Zarei A, Deyman KL, Brikis CJ (September 2012). "Hypothesis/review: contribution of putrescine to 4-aminobutyrate (GABA) production in response to abiotic stress". Plant Sci. 193–194: 130–135. Bibcode:2012PlnSc.193..130S. doi:10.1016/j.plantsci.2012.06.001. PMID 22794926.
  8. ^ Benedetti MS, Dostert P (1994). "Contribution of amine oxidases to the metabolism of xenobiotics". Drug Metab Rev. 26 (3): 507–535. doi:10.3109/03602539408998316. PMID 7924902. MAO also catalyses the deamination of a natural brain constituent, monoacetyl-putrescine, producing y-acetylaminobutyraldehyde, which in turn participates in the formation of brain GABA [13].
  9. ^ Watanabe M, Maemura K, Kanbara K, Tamayama T, Hayasaki H (2002). "GABA and GABA Receptors in the Central Nervous System and Other Organs". A Survey of Cell Biology. International Review of Cytology. Vol. 213. pp. 1–47. doi:10.1016/s0074-7696(02)13011-7. ISBN 978-0-12-364617-0. PMID 11837891.
  10. ^ Seiler N (June 2004). "Catabolism of polyamines". Amino Acids. 26 (3): 217–233. doi:10.1007/s00726-004-0070-z. PMID 15221502.
  11. ^ a b c Cho HU, Kim S, Sim J, Yang S, An H, Nam MH, Jang DP, Lee CJ (July 2021). "Redefining differential roles of MAO-A in dopamine degradation and MAO-B in tonic GABA synthesis". Exp Mol Med. 53 (7): 1148–1158. doi:10.1038/s12276-021-00646-3. PMC 8333267. PMID 34244591.
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