Name: Dampfaseafzetting van elektroactief poly (3,4-ethyleendioxythiofeen) op elektrogesponnen polymeer nanovezels (Video) | JoVE Journal
Uploaded: 2025-03-07T14:20:00.000+00:00
Duration: 8 min 28 s
Description: Leer dampfaseafzetting van elektroactief poly(3,4-ethyleendioxythiofeen) op elektrogesponnen polyacrylonitril nanovezels. Deze methode verbetert de mechanische eigenschappen voor toepassingen in biomedische techniek.

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<table><tbody><tr><td>10X PBS</td><td>Thermo Fisher Scientific</td><td>BP399-1</td><td>Worden gebruikt om in vivo zout- en vochtigheidsomstandigheden na te bootsen</td></tr><tr><td>Acetone</td><td>Thermo Scientific&nbsp;</td><td>A412P4</td><td>Wordt gebruikt om de VPD-kamer te reinigen&nbsp;</td></tr><tr><td>DMF</td><td>EMD Milipore Corporation</td><td>DX1727-6</td><td>Wordt gebruikt als oplosmiddel om PAN-oplossingen te bereiden</td></tr><tr><td>EDOT</td><td>TCI</td><td>E0741</td><td>Elektroactieve monomeer gebruikt om polymeer op PAN-coupons af te zetten</td></tr><tr><td>Electrospinning-apparaat</td><td>SprayBase</td><td>ES30N-5W</td><td>Wordt gebruikt om PAN-nanovezels te produceren</td></tr><tr><td>FeCl3</td><td>Thermo Scientific&nbsp;&nbsp;</td><td>12357.22</td><td>Wordt gebruikt om polymerisatie te bewerkstelligen via chemische oxidatie van elektroactieve monomeren</td></tr><tr><td>Filterpapier (180 &mu;m)</td><td>&nbsp;VWR</td><td>28310-015</td><td>Wordt gebruikt voor filtratie&nbsp;</td></tr><tr><td>Hoogspanningsvoeding</td><td>Gamma</td><td>ES30N-5W</td><td>15KV-20KV. Voor dit experiment werd 18,9KV gebruikt.</td></tr><tr><td>Heet plaat</td><td>Corning</td><td>PC420D</td><td>Wordt gebruikt om de vacuümkamer te verwarmen</td></tr><tr><td>Methanol</td><td>Fischer Chemical</td><td>A412-4</td><td>Wordt gebruikt om FeCl2 en FeCl3 uit EAP-gecoat PAN te verwijderen</td></tr><tr><td>Naald</td><td>BDYale</td><td>511098</td><td>20G</td></tr><tr><td>PAN-poeder</td><td>Ambeed</td><td>A971305</td><td>Wordt gebruikt voor de bereiding van PAN-nanovezels. Gemiddelde MW 150.000 g/mol.</td></tr><tr><td>PTFE-buis</td><td>Microsolv Tech Corp.</td><td>49210-20-C</td><td>0,8 mm ID, 1,6 mm OD</td></tr><tr><td>Pomp</td><td>Kozyvacu</td><td>ZK220419</td><td>Wordt gebruikt om vacuüm in de kamer te creëren</td></tr><tr><td>Spuit</td><td>Air-Tite</td><td>231220</td><td>10 mL, wegwerpspuit</td></tr><tr><td>Spuitpomp</td><td>New Era</td><td>NE-300</td><td>Stroomsnelheid 0,04 mL/min</td></tr><tr><td>Vacuümkamer met manometers</td><td>BAC Eng</td><td>X002APOXUR</td><td></td></tr><tr><td>Waspapier</td><td>Reynolds Kitchen</td><td>CM-3CY-06KR</td><td>Wordt gebruikt om metalen vat te bedekken en PAN-nanovezel te verzamelen</td></tr></tbody></table>

dampfaseafzetting van elektroactief poly (3,4-ethyleendioxythiofeen) op elektrogesponnen polymeer nanovezels

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

Dampfaseafzetting van elektroactief poly (3,4-ethyleendioxythiofeen) op elektrogesponnen polymeer nanovezels

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

Research

JoVE Journal

Chemistry

Scheikunde

Het proces van electrospinning polymeren voor tissue engineering en cel cultuur wordt behandeld in dit artikel. In het bijzonder, is de electrospinning van fotoreactieve macromers met extra verwerkingsmogelijkheden van photopatterning en multi-polymeer electrospinning beschreven.

Electrospinning Stapel-Polymer Stellingen voor Tissue Engineering en Cell Culture

Een efficiënte aanpak voor het bereiden nanovezels ingericht met functionele groepen die specifiek interactie met eiwitten beschreven. De benadering vereist eerst de bereiding van een gefunctionaliseerd polymeer met geschikte functionele groep. De functionele polymeer wordt gefabriceerd in nanovezels door electrospinning. De effectiviteit van de binding van de nanovezels met een eiwitgehalte wordt onderzocht door confocale microscopie.

Procedure voor het vervaardigen van biofunctionele nanovezels

Hier presenteren we een protocol om elektrogesponnen nanovezel steigers met gradated organisatie van vezels fabriceren en hun toepassingen verkennen in het reguleren van de cel morfologie / oriëntatie. Verlopen met betrekking tot fysische en chemische eigenschappen van de nanovezel scaffolds biedt een grote verscheidenheid aan toepassingen op biomedisch gebied.

Electrospun Nanovezel Steigers met gradaties in Fiber Organisatie

Vooruitgang in biomateriaaltechnologieën maakt de ontwikkeling van driedimensionale constructen met meerdere celtypen mogelijk. We hebben electrospinning protocollen ontwikkeld om drie individuele scaffolds te produceren om de belangrijkste structurele cellen van de luchtweg te kweken en zo een 3D in vitro model van de wand van de bronchiolen in de luchtweg te bieden.

Aanpassing van de elektrospinproces te bieden drie unieke omgevingen voor een Tri-layered<em&gt; In Vitro</em&gt; Model van de Airway Muur

Er wordt een protocol gepresenteerd voor de synthese en bereiding van nanodeeltjes bestaande uit elektroactieve polymeren.

Elektroactieve Polymer Nanodeeltjes Exposeren Fotothermisch Properties

Het algemene doel van dit project was om elektrospinning te gebruiken om een ​​fotoanode te vervaardigen met verbeterde prestaties voor kleurstofgevoeligte zonnecellen.

Elektrospinning van fotokatalytische elektroden voor kleurstofgevoeligte zonnecellen

In deze paper presenteren we een protocol om organische materialen op textiel, die zorgt voor de directe integratie van organische elektronische apparaten met wearables selectief deponeren. De gefabriceerde apparaten kunnen volledig worden geïntegreerd in textiel, met respect voor hun mechanische uiterlijk en het mogelijk maken sensing mogelijkheden.

Een eenvoudige en schaalbare Fabrication Methode voor biologisch Electronic Devices on Textiles

Dit document stelt een protocol voor reactieve damp afzetting van poly(3,4-ethylenedioxythiophene), poly(3,4-propylenedioxythiophene) en poly (thieno [3,2 -b] thiofeen) films op glazen dia's en ruwe ondergronden, zoals textiel en papier.

Reactieve Vapor Deposition van geconjugeerd polymeerlagen op willekeurige substraten

Het primaire doel van deze studie is om een protocol te beschrijven om polymere vezelmatten met consistente morfologie te bereiden via solution blow spinning (SBS). We willen SBS gebruiken om nieuwe, instelbare, flexibele polymere vezel nanocomposieten te ontwikkelen voor verschillende toepassingen, waaronder beschermende materialen, door nanodeeltjes op te nemen in een polymeer-elastomeermatrix.

Oplossing Blow Spinning van polymere nanocomposietvezels voor persoonlijke beschermingsmiddelen

We beschrijven waterige en organische oplosmiddelsystemen voor de elektropolymerisatie van poly(3,4-ethyleendioxythiofeen) om dunne lagen op het oppervlak van gouden micro-elektroden te creëren, die worden gebruikt voor het detecteren van analyten met een laag molecuulgewicht.

Elektrochemische bereiding van poly(3,4-ethyleendioxythiofeen) lagen op goud micro-elektroden voor urinezuur-sensing toepassingen

Er wordt een basisprotocol beschreven voor het vervaardigen van melanine/PEDOT: PSS organische elektrochemische transistors (OECT's) met hoge transconductantie met behulp van spuitcoating. De methode maakt nauwkeurige controle mogelijk over de afzetting van de film, de dikte en de morfologie, waardoor reproduceerbare apparaten worden geboden voor duurzame en schaalbare bio-elektronische toepassingen.

Gespoten melanine/PEDOT: PSS-films voor duurzame organische elektrochemische transistors

Leer dampfaseafzetting van elektroactief poly(3,4-ethyleendioxythiofeen) op elektrogesponnen polyacrylonitril nanovezels. Deze methode verbetert de mechanische eigenschappen voor toepassingen in biomedische techniek.

Dampfaseafzetting van elektroactief poly (3,4-ethyleendioxythiofeen) op elektrogesponnen polymeer nanovezels

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