📢 Science impacts us all—let’s make sure it includes everyone!
I just signed this petition calling for research that reflects Canada’s diversity & tackles the issues that matter most. Join me!
🖊️ Sign here: https://t.co/QrfIpFQbaX
🔁 RT to spread the word!
@sswaraj, @DrLessard, and myself are looking for a PhD candidate to work on the future of High performance Organic Thin-Film Transistors (OTFT). We are looking for a motivated candidate with a Master's degree or equivalent in polymer/materials science! https://t.co/AaJ6ph0o05
Just published in #MaterialsAdvances by @DrLessard et al. cytocompatible, disintegrable, low-voltage operation n-type organic thin film transistors for applications in bioresorbable electronics👉https://t.co/r8D7l6kcuc
Need an interesting article to read today?
Self-assembly of poly(ionic liquid) block copolymer based dielectrics on semiconductor formation and performance by @DrLessard
Read the Advanced Manuscript here: https://t.co/NMrKdA2WCC
Très heureux de participer au congrès @ACFAS demain sur Synthèses et applications de polymères fonctionnels https://t.co/enbDaKcx1b
Merci @DrLessard pour l'organisation ...ça risque d'être super intéressant.
This Comment by @DrLessard and Joseph Manion discusses the need for the high-throughput characterization of devices such as organic thin-film transistors (OTFTs): https://t.co/UbD1IVYKGQ
Check out our new comment in @SpringerNature Nature Reviews Materials on the importance of High-throughput characterization for reporting reliable organic thin-film transistor performance https://t.co/sKcRjUmdU2
Putting single molecule magnets on surfaces and investigating if they retain their properties and move towards applications? https://t.co/TP3Gnzn8u0 congrats to all. Also Looking for students and PDF to work in two groups at @uOttawa (@murugesu@DrLessard )
🚨New Publication🚨
In collaboration with Marcel Bouvet at @ICMUB we developed p- and n-type heterojunction ammonia gas sensors where the majority charge carrier was controlled by peripheral fluorination of a silicon phthalocyanine sublayer. @DrLessard
https://t.co/RMBBUQmORY
Félicitations au professeur d’@uOttawaGenie, @DrLessard, et son équipe pour cette avancée révolutionnaire dans la fabrication de dispositifs.
🥼👏
Hats off to @uOttawa professor @DrLessard and his team for this breakthrough, opening the doors to a realm of new tech possibilities.
Researchers from @uOttawa@DrLessard@uOttawaGenie recently used the CLS to study conductive polymers, organic materials making possible next-gen tech such as stretchable solar panels and sensors for optimizing cannabis harvest.
https://t.co/A2MkAtTLWo
#AdvancedMaterials
Peripherally Fluorinated Silicon Phthalocyanines: How Many Fluorine Groups Are Necessary for Air-Stable Electron Transport in Organic Thin-Film Transistors?
By @DrLessard et al. @uOttawa
Read the paper 👉 https://t.co/MzFNMjpUjb
Our publication in @ChemMater is out! We investigate the threshold for air-stable electron transport in silicon phthalocyanines and report eight new and exciting derivatives. The answer to how many fluorine atoms we need may surprise you! @DrLessard
https://t.co/23haDpPYCI