Suzukiova reakce: Porovnání verzí

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Pomocí [[fosfiny|fosfinového]] ligandu [[SPhos]] lže množství potřebného katalyzátoru snížit až na 0,001&nbsp;molárních procent.<ref>{{Citace periodika | autor1 = R. Martin | autor2 = S. L. Buchwald | titul = Palladium-Catalyzed Suzuki−Miyaura Cross-Coupling Reactions Employing Dialkylbiaryl Phosphine Ligands | periodikum = [[Accounts of Chemical Research]] | rok vydání = 2008 | strany = 1461–1473 | doi = 10.1021/ar800036s | pmid = 18620434}}</ref>
 
TDíkyDíky těmto vlastnostem je Suzukiova reakce často používaným syntetickým postupem.
 
== Využití ==
<!-- ==Applications==
===Industrial applicationsV průmyslu ===
TheSuzukiova Suzukireakce couplingse reactionvyužívá isk&nbsp;průmyslové scalablesynéze andmeziproduktů cost-effectivepři forvýrobě useléčiv ina thečistých synthesis of intermediates for [[pharmaceuticals]] or [[fine chemicals]]chemikálií..<ref name="Rouhi - Industry">{{cite news|last=Rouhi|first=A. Maureen|title=Fine Chemicals|newspaper=C&EN|date=6 September 2004}}</ref> TheV&nbsp;minulosti Suzukijejí reactionvyužití wasomezovaly oncevysoké limitedceny bykatalyzátorů higha levelsšpatná ofdostupnost catalystboronových andkyselin. thePrůmyslovými limitedSuzukiovými availability of [[boronic acid]]s.reakcemi Replacementsse forvyrábí [[halides]]řada werebiologicky alsoaktivních foundlátek, increasingjako the number of coupling partners for the [[halide]] or [[pseudohalide]] as well. Scaled up reactions have been carried out in the synthesis of a number of important biological compounds such asje CI-1034, whichpři usedjehož avýrobě [[triflate]]se andpoužívá [[boronictriflát acid]]a couplingboronová partnerskyselina, whichkdy waspři run on anpoužití 80&nbsp;kg kilogramreaktantů scaledosahuje with avýtěžnost 95&nbsp;% yield.<ref name=AOC-231>{{cite journal|last1=Jacks1|first1=Thomas E.|last2=Belmont |first2=Daniel T. |last3= Briggs |first3=Christopher A. |last4=Horne |first4= Nicole M. |last5=Kanter |first5=Gerald D. |last6=Karrick |first6=Greg L. |last7= Krikke |first7=James J. |last8=McCabe |first8=Richard J. |last9=Mustakis |first0=Jason G. |last10=Nanninga |first10=Thomas N. |title=Development of a Scalable Process for CI-1034, an Endothelin Antagonist|journal=Organic Process Research & Development|date=1 March 2004|volume=8|issue=2|pages=201–212|doi=10.1021/op034104g}}</ref>
 
AnotherDalším examplepříkladem isje the coupling ofreakce 3-pyridylborane andpyridylboranu s&nbsp;1-bromobrom-3-(methylsulfonyl)benzenebenzenem, thatkterou formedse anvytváří intermediatemeziprodukt, thatz&nbsp;něhož wasmůže usedbýt inzískána thelátka synthesiss&nbsp;účinky ofna a[[centrální potentialnervová centralsoustava|centrální nervousnervovou system agentsoustavu]]. ThePři couplingreakci reactionse tovytváří form the intermediate produced (278&nbsp;kg kilograms) in aproduktu s&nbsp;92.,5% yieldvýtěžností.<ref name="Carey and Sundberg">{{citeCitace monografie book|title titul = Advanced Organic Chemistry | url = https://archive.org/details/advancedorganicc00care_636 |url-access vydavatel =limited Springer |year rok vydání = 2007 |publisher strany =Springer 739–747 |pages doi =[https: 10.1002//archivetcr.org/details/advancedorganicc00care_636/page/n762201300001 739]–747| pmid = 23568378}}</ref><ref name="Rouhi - Industry" />
 
[[FileSoubor:CNS Intermediate Synthesis Suzuki.png|center|CNS Intermediate Synthesis Suzuki]]
 
SignificantVýznamných effortspokroků havebylo beendosaženo putpři intovývoji theheterogenních developmentkatalyzátorů ofSuzukiovy heterogeneous catalysts for the Suzuki CC reactionreakce, motivatedcož by thevyužití performance gains in the industrial processv&nbsp;průmyslu (eliminatingusnadňuje theoddělení catalystkatalyzátoru separationod fromsubstrátu); theukázalo substrate)se, andže recentlykatalýza ajednoatomovými heterogenními Pd singlekatalyzátory atomje hetereogeneousvhodnější catalystnež hashomogenní beenkatalýza shown to outperform the industry default homogeneouspomocí Pd(PPh<sub>3</sub>)<sub>4</sub> catalyst.<ref>{{citeCitace periodika journal| author1autor1 = Zupeng Chen, Zupeng| spoluautoři |author2= Vorobyeva, Evgeniya |author3= MitchellVorobyeva, Sharon |author4= FakoMitchell, Edvin |author5= OrtuñoFako, Manuel A. |author6= LópezOrtuño, Núria |author-link6=[[Núria López|author7= Collins]], Sean M. |author8= MidgleyCollins, Paul A. |author9=Midgley, Sylvia Richard, Sylvia |author10=Gianvito Vilé, Gianvito |author11=Javier Pérez-Ramírez, Javier| year= 2018| titletitul = A heterogeneous single-atom palladium catalyst surpassing homogeneous systems for Suzuki coupling | journalperiodikum = [[Nature Nanotechnology|]] volume = 13| issuerok = 8| pagesvydání = 702–7072018 | doistrany =10.1038/s41565-018-0167-2|pmid= 29941887702–707 | hdl=url 2072/359786|s2cid= 49415437 |url= http://eprints.whiterose.ac.uk/156636/1/s41565-018-0167-2.pdf | doi = 10.1038/s41565-018-0167-2 | pmid = 29941887}}</ref>
 
===Synthetic applicationsV laboratořích ===
Suzukiova reakce má využití při syntézách složitých organických struktur.<ref>{{Citace periodika | autor1 = Aaron Balog | autor2 = Dongfang Meng | autor3 = Ted Kamenecka | autor4 = Peter Bertinato | autor5 = Dai-Shi Su | autor6 = Erik J. Sorensen | autor7 = Samuel J. Danishefsky | titul = Total Synthesis of(–)-Epothilone A | periodikum = [[Angewandte Chemie|Angewandte Chemie International Edition in English]] | rok vydání = 1996 | strany = 2801–2803 | doi = 10.1002/anie.199628011}}</ref><ref>{{Citace periodika | autor1 = Junjia Liu | autor2 = Stephen D. Lotesta | autor3 = Erik J. Sorensen | titul = A concise synthesis of the molecular framework of pleuromutilin | periodikum = Chemical Communications | rok vydání = 2011 | strany = 1500–1502 | doi = 10.1039/C0CC04077K | pmid =21079876}}</ref>
The Suzuki coupling has been frequently used in syntheses of complex compounds.<ref>{{cite journal| doi =10.1002/anie.199628011| title =Total Synthesis of(–)-Epothilone A| year =1996| last1 =Balog| first1 =Aaron| last2 =Meng| first2 =Dongfang| last3 =Kamenecka| first3 =Ted| last4 =Bertinato| first4 =Peter| last5 =Su| first5 =Dai-Shi| last6 =Sorensen| first6 =Erik J.| last7 =Danishefsky| first7 =Samuel J.| journal =Angewandte Chemie International Edition in English| volume =35| issue =2324| pages =2801–2803}}</ref><ref>{{cite journal| doi =10.1039/C0CC04077K| title =A concise synthesis of the molecular framework of pleuromutilin| year =2011| last1 =Liu| first1 =Junjia| last2 =Lotesta| first2 =Stephen D.| last3 =Sorensen| first3 =Erik J.| journal =Chemical Communications| volume =47| issue =5| pages =1500–2| pmid =21079876| pmc =3156455}}</ref> The Suzuki coupling has been used on a [[citronellal]] derivative for the synthesis of [[caparratriene]], a natural product that is highly active against leukemia:<ref name=Vyvyan1999>{{cite journal | author = Vyvyan, J. R. | year = 1999 | title = An expedient total synthesis of (+/−)-caparratriene | journal = Tetrahedron Letters | volume = 40 | issue = 27 | pages = 4947–4949 | doi = 10.1016/S0040-4039(99)00865-5 | first2 = Emily A. | last3 = Stephan | first3 = Mari L.| last2 = Peterson}}</ref>
 
Suzukiova reakce byla použita na přípravu derivátu [[citronellal]]u, sloužícího jako meziprodukt přípravy kaparratrienu, látky aktivní proti leukémii:<ref>{{Citace periodika | autor1 = J. R. Vyvyan | autor2 = Emily A. Peterson | autor3 = Mari L. Stephan | titul = An expedient total synthesis of (+/−)-caparratriene | periodikum = [[Tetrahedron Letters]] | rok vydání = 1999 | strany = 4947–4949 | doi = 10.1016/S0040-4039(99)00865-5 | pmid =21079876}}</ref>
[[File:Suzuki coupling capparatriene.tif|frameless|center|720x157px]]
 
[[FileSoubor:Suzuki coupling capparatriene.tif|frameless|center|720x157px700x200px]]
==Variations==
 
<!-- ==ApplicationsVariations==
===Metal catalyst===
Various catalytic uses of metals other than palladium (especially nickel) have been developed.<ref name="Han - Nickel">{{cite journal|last=Han|first=Fu-She|title=Transition-metal-catalyzed Suzuki–Miyaura cross-coupling reactions: a remarkable advance from palladium to nickel catalysts|journal=Chemical Society Reviews|date=1 January 2013|volume=42|issue=12|pages=5270–98|doi=10.1039/c3cs35521g|pmid=23460083}}</ref> The first nickel catalyzed cross-coupling reaction was reported by Percec and co-workers in 1995 using aryl mesylates and boronic acids.<ref name=Percec1995>{{cite journal|last1=Percec|first1=Virgil|first2=Jin-Young |last2=Bae|first3=Dale |last3=Hill|title=Aryl Mesylates in Metal Catalyzed Homocoupling and Cross-Coupling Reactions. 2. Suzuki-Type Nickel-Catalyzed Cross-Coupling of Aryl Arenesulfonates and Aryl Mesylates with Arylboronic Acids|journal=Journal of Organic Chemistry|date=1995|volume=60|issue=4|pages=1060–1065|doi=10.1021/jo00109a044}}</ref> Even though a higher amount of nickel [[catalyst]] was needed for the reaction, around 5&nbsp;mol %, [[nickel]] is not as expensive or as [[precious metal|precious]] a metal as [[palladium]]. The nickel catalyzed Suzuki coupling reaction also allowed a number of compounds that did not work or worked worse for the palladium catalyzed system than the nickel-catalyzed system.<ref name="Han - Nickel" /> The use of nickel catalysts has allowed for electrophiles that proved challenging for the original Suzuki coupling using palladium, including substrates such as phenols, aryl ethers, esters, phosphates, and fluorides.<ref name="Han - Nickel" />