- After-Shows
- Alternative
- Animals
- Animation
- Arts
- Astronomy
- Automotive
- Aviation
- Baseball
- Basketball
- Beauty
- Books
- Buddhism
- Business
- Careers
- Chemistry
- Christianity
- Climate
- Comedy
- Commentary
- Courses
- Crafts
- Cricket
- Cryptocurrency
- Culture
- Daily
- Design
- Documentary
- Drama
- Earth
- Education
- Entertainment
- Entrepreneurship
- Family
- Fantasy
- Fashion
- Fiction
- Film
- Fitness
- Food
- Football
- Games
- Garden
- Golf
- Government
- Health
- Hinduism
- History
- Hobbies
- Hockey
- Home
- How-To
- Improv
- Interviews
- Investing
- Islam
- Journals
- Judaism
- Kids
- Language
- Learning
- Leisure
- Life
- Management
- Manga
- Marketing
- Mathematics
- Medicine
- Mental
- Music
- Natural
- Nature
- News
- Non-Profit
- Nutrition
- Parenting
- Performing
- Personal
- Pets
- Philosophy
- Physics
- Places
- Politics
- Relationships
- Religion
- Reviews
- Role-Playing
- Rugby
- Running
- Science
- Self-Improvement
- Sexuality
- Soccer
- Social
- Society
- Spirituality
- Sports
- Stand-Up
- Stories
- Swimming
- TV
- Tabletop
- Technology
- Tennis
- Travel
- True Crime
- Episode-Games
- Visual
- Volleyball
- Weather
- Wilderness
- Wrestling
- Other
PubReading [222] - Click Chemistry Enables Rapid Amplification of Full-Length Reverse Transcripts for Long-Read Third Generation Sequencing - E. Schönegger, T. Frischmuth
Here we describe the development of a novel click chemistry-based method for the generation and amplification of full-length cDNA libraries from total RNA, while avoiding the need for problematic template-switching (TS) reactions. Compared with prior efforts, our method involves neither random priming nor stochastic cDNA termination, thus enabling amplification of transcripts that were previously inaccessible via related click chemistry-based RNA sequencing techniques. A key modification involving the use of PCR primers containing two overhanging 3'-nucleotides substantially improved the read-through compatibility of the 1,4-disubstituted 1,2,3-triazole-containing cDNA, where such modifications typically hinder amplification. This allowed us to more than double the possible insert size compared with the state-of-the art click chemistry-based technique, PAC-seq. Furthermore, our method performed on par with a commercially available PCR-cDNA RNA sequencing kit, as determined by Oxford Nanopore sequencing. Given the known advantages of PAC-seq, namely, suppression of PCR artifacts, we anticipate that our contribution could enable diverse applications including improved analyses of mRNA splicing variants and fusion transcripts. DOI: 10.1021/acs.bioconjchem.2c00353 - 2022