Name: Deposizione in fase vapore di poli(3,4-etilendiossitiofene) elettroattivo su nanofibre polimeriche elettrofilate (Video) | JoVE Journal
Uploaded: 2025-03-07T14:20:00.000+00:00
Duration: 8 min 28 s
Description: Scopri la deposizione in fase vapore di PEDOT su nanofibre PAN elettrofilate per applicazioni in biomedicina e purificazione dell'acqua. Questo metodo migliora le proprietà meccaniche dei materiali porosi.

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</ol>

<table><tbody><tr><td>10X PBS</td><td>Thermo Fisher Scientific</td><td>BP399-1</td><td>Utilizzato per imitare in vivo le condizioni di sale e umidità</td></tr><tr><td>Acetone</td><td>Thermo Scientific&nbsp;</td><td>A412P4</td><td>Utilizzato per pulire la camera VPD&nbsp;</td></tr><tr><td>DMF</td><td>EMD Milipore Corporation</td><td>DX1727-6</td><td>Utilizzato come solvente per preparare soluzioni PAN</td></tr><tr><td>EDOT</td><td>TCI</td><td>E0741</td><td>Monomero elettroattivo utilizzato per depositare il polimero su coupon PAN Apparecchio</td></tr> di <tr><td>elettrofilatura</td><td>SprayBase</td><td>ES30N-5W</td><td>Utilizzato per produrre nanofibre PAN</td></tr><tr><td>FeCl3</td><td>Thermo Scientific&nbsp; &nbsp;</td><td>12357.22</td><td>Utilizzato per effettuare la polimerizzazione mediante ossidazione chimica di monomeri elettroattivi Carta</td></tr><tr><td>da filtro (180 &mu; m)</td><td>&nbsp; VWR</td><td>28310-015</td><td>Utilizzato per la filtrazione&nbsp;</td></tr><tr><td>Alimentatore ad alta tensione</td><td>Gamma</td><td>ES30N-5W</td><td>15KV-20KV. Per questo esperimento sono stati utilizzati 18,9 KV.</td></tr><tr><td>Piastra riscaldante</td><td>Corning</td><td>PC420D</td><td>Utilizzato per riscaldare la camera a vuoto</td></tr><tr><td>Metanolo</td><td>Fischer Chemical</td><td>A412-4</td><td>Utilizzato per rimuovere FeCl2 e FeCl3 dall'ago PAN rivestito in EAP</td></tr><tr><td></td><td>BDYale</td><td>511098</td><td>20G</td></tr><tr><td>PAN in polvere</td><td>Ambeed</td><td>A971305</td><td>Utilizzato per la preparazione di nanofibre PAN. MW medio 150.000 g/mol.</td></tr><tr><td>tubo in PTFE</td><td>Microsolv Tech Corp.</td><td>49210-20-C</td><td>0,8 mm ID, 1,6 mm OD</td></tr><tr><td>Pompa</td><td>Kozyvacu</td><td></td><td>ZK220419 Utilizzato per creare il vuoto all'interno della camera</td></tr><tr><td>Siringa</td><td>Air-Tite</td><td>231220</td><td>10 mL, siringa monouso</td></tr><tr><td>Pompa a siringa</td><td>New Era</td><td>NE-300</td><td>Portata 0,04 mL/min</td></tr><tr><td>Camera a vuoto con manometri</td><td>BAC Eng</td><td>X002APOXUR</td><td></td></tr><tr><td>Carta oleata</td><td>Reynolds Kitchen</td><td>CM-3CY-06KR</td><td>Utilizzato per coprire il tamburo metallico e la raccolta della nanofibra PAN</td></tr></tbody></table>

deposizione in fase vapore di poli(3,4-etilendiossitiofene) elettroattivo su nanofibre polimeriche elettrofilate

Vapor Phase Deposition of Electroactive Poly(3,4-ethylenedioxythiophene) onto Electrospun Commodity Polymer Nanofibers

In questo lavoro, le nanofibre PAN rivestite di polimero elettroattivo sono fabbricate mediante elettrofilatura per sviluppare materiali altamente porosi ma resistenti che potrebbero essere utilizzati come filtri, assorbenti e fotocatalizzatori per la purificazione dell'acqua, substrati per l'elettrocatalisi e scaffold/matrici per l'ingegneria tissutale, la rigenerazione nervosa, la somministrazione di farmaci e il biorilevamento. Per fornire a questi materiali proprietà elettroattive, le...

Deposizione in fase vapore di poli(3,4-etilendiossitiofene) elettroattivo su nanofibre polimeriche elettrofilate

This study investigates the preparation of polyacrylonitrile (PAN) nanofibers through electrospinning to create highly porous and strong materials for ...

vapor-phase-deposition-electroactive-poly-34-ethylenedioxythiophene

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JoVE Journal

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Chimica

Il processo di electrospinning polimeri per l'ingegneria tissutale e colture cellulari è affrontato in questo articolo. In particolare, il electrospinning di macromers fotoreattivo con capacità di elaborazione aggiuntive di photopatterning e multi-polimero electrospinning è descritto.

Electrospinning Ponteggi polimeri fibrosi per l&#39;ingegneria tissutale e colture cellulari

Un approccio efficace per la preparazione di nanofibre decorate con gruppi funzionali in grado di interagire specificamente con proteine ​​è descritto. Il primo approccio richiede la preparazione di un polimero funzionalizzato con gruppo funzionale adeguata. Il polimero funzionale è realizzato in nanofibre da electrospinning. L'efficacia del legame delle nanofibre con una proteina viene studiata tramite microscopia confocale.

Procedimento per la realizzazione di nanofibre Biofunzionali

Qui, vi presentiamo un protocollo per fabbricare scaffold elettrofilate nanofibre con organizzazione sfumati di fibre e di esplorare le loro applicazioni nella regolazione della morfologia delle cellule / orientamento. Gradienti per quanto riguarda le proprietà fisiche e chimiche dei ponteggi nanofibre offrono un'ampia varietà di applicazioni in campo biomedico.

Elettrofilate nanofibre Ponteggi con gradazioni Organizzazione Fiber

I progressi nelle tecnologie dei biomateriali consentono lo sviluppo di costrutti tridimensionali di tipo multicellulare. Abbiamo sviluppato protocolli di elettrofilatura per produrre tre scaffold individuali per coltivare le principali cellule strutturali delle vie aeree per fornire un modello 3D in vitro della parete dei bronchioli delle vie aeree.

Adattamento del processo Electrospinning per fornire tre ambienti unici per un Tri-livello<em&gt; In Vitro</em&gt; Modello della parete delle vie aeree

Viene presentato un protocollo per la sintesi e la preparazione di nanoparticelle costituite da polimeri elettroattivi.

Proprietà elettroattivo Polymer Nanoparticelle Esporre fototermiche

L'obiettivo generale di questo progetto era quello di utilizzare elettrospinning per la realizzazione di un photoanode con prestazioni migliori per le celle solari sensibilizzate ai coloranti.

Elettrospinning degli elettrodi fotocatalitici per le celle solari sensibilizzate a tinte

In questo articolo, vi presentiamo un protocollo per depositare selettivamente materiali organici sui tessuti, che consente l'integrazione diretta di dispositivi elettronici organici con indossabili. I dispositivi fabbricati possono essere pienamente integrati nel settore tessile, rispettando il loro aspetto meccanico e consentendo capacità di rilevamento.

Un metodo semplice e scalabile di fabbricazione per dispositivi elettronici organici sui tessili

Questa carta presenta un protocollo per la deposizione di vapore reattiva di poly(3,4-ethylenedioxythiophene), di poly(3,4-propylenedioxythiophene) e di poli (thieno [3,2 -b] tiofene) film su lastre di vetro e superfici ruvide, come tessuti e carta.

Deposizione di vapore reattiva di film polimerici coniugati su substrati arbitrari

L'obiettivo principale di questo studio è quello di descrivere un protocollo per preparare tappeti in fibra polimerica con morfologia coerente tramite solution blow spinning (SBS). Miriamo a utilizzare SBS per sviluppare nanocompositi in fibra polimerica nuovi, sintonizzabili e flessibili per varie applicazioni, compresi i materiali protettivi, incorporando nanoparticelle in una matrice polimero-elastomero.

Solution blow spinning di fibre polimeriche nano-composite per dispositivi di protezione individuale

Descriviamo sistemi a solvente acquoso e organico per l'elettropolimerizzazione del poli(3,4-etilendiaossitiofene) per creare strati sottili sulla superficie dei microelettrodi d'oro, che vengono utilizzati per rilevare analiti a basso peso molecolare.

Preparazione elettrochimica di strati di poli(3,4-etilenediossitiofene) su microelettrodi d'oro per applicazioni di rilevamento dell'acido urico

Viene descritto un protocollo di base per la fabbricazione di transistor elettrochimici organici (OECT) melanina/PEDOT:PSS ad alta transconduttanza utilizzando il rivestimento spray. Il metodo consente un controllo preciso sulla deposizione, lo spessore e la morfologia del film, fornendo dispositivi riproducibili per applicazioni bioelettroniche sostenibili e scalabili.

Pellicole Melanin/PEDOT:PSS rivestite a spruzzo per transistor elettrochimici organici sostenibili

Scopri la deposizione in fase vapore di PEDOT su nanofibre PAN elettrofilate per applicazioni in biomedicina e purificazione dell'acqua. Questo metodo migliora le proprietà meccaniche dei materiali porosi.

Deposizione in fase vapore di poli(3,4-etilendiossitiofene) elettroattivo su nanofibre polimeriche elettrofilate

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