Who says you can't have fun in the lab? These structures are made of multiple tiny single strands of DNA stapled together, with an avg diameter of ~100nm (~80,000x smaller than a common house-fly) Full article: Rothemund, P. Nature 440, 297–302 (2006). https://t.co/yeOPrSdPoi https://t.co/bp3t56qfiX
Folding DNA to create nanoscale shapes and patterns.
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Mar 2019 – Mar 2025Where it's discussed
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News44 articles
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Blogs35 articles
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Facebook24 posts
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AI synopsis
What people are saying
The discussions demonstrate high interest and a positive attitude toward Rothemund's pioneering work, with phrases like 'time to put the origami in our DNA Origami Reading Group' and references to the paper as 'seminal,' illustrating both admiration and recognition of its importance in nanotechnology. The tone and word choices reflect a sense of excitement and appreciation for the scientific advance.
Most posts show enthusiasm for the significance of the research, referencing it as a foundational or innovative work in DNA nanotechnology.
Discussions highlight curiosity and fascination with DNA origami, indicating high interest in the subject across the group.
Comments include acknowledgments of the research’s implications and mentions of related projects, showing active engagement.
The tweets suggest recognition of the publication's potential for advancing nanofabrication and nanoengineering, implying moderate impact.
Abstract in brief
- This text explains a method for creating complex two-dimensional shapes at the nanoscale by folding long single-stranded DNA molecules, using a combination of a scaffold strand and around 200 short staple strands that guide the shape formation.
- The process involves designing a pattern that the DNA will fold into, with each staple strand acting as a 6nm pixel, allowing for precise and detailed shapes like words, images, or geometric figures such as squares and stars, with structures about 100nm wide.
- The technique enables the construction of not only individual DNA nanostructures but also larger assemblies, including periodic lattices and complex molecular structures, moving towards more intricate nanofabrication comparable to top-down methods.]
Top posts
Most liked on X and BlueskyHere are three that come to my mind: Optical Conformal Mapping by Leonhardt https://t.co/vFBJZTO9BH Folding DNA to create nanoscale shapes and patterns by Rothemund https://t.co/uigNpP6bTV Exploring complex networks by @stevenstrogatz https://t.co/r7OgfXQAxb
It's time to put the origami in our DNA Origami Reading Group! This week we're reading Rothemund's "Folding DNA to create nanoscale shapes and patterns" to understand this seminal paper in context! What did Rothemund know, and what did he intuit? Join us to discuss!
DNA origami - folding DNA to create nanoscale shapes and patterns. https://t.co/ixhSjrEC9G In #DNA nanotechnology, bottom-up fabrication explores the inherent properties of atoms and molecules to direct their self-organization and make relatively simple nanostructures.
We got DNA for origami (https://t.co/PGZYIkvl5c), DNA for building small machines that help orient protein for cryo-EM (https://t.co/UZOry2r6En), and now DNA for organelle-specific membrane voltmeters!: https://t.co/gj7fUuVhIH
All mentions
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Learn paper prototyping for innovative projects and technologies with INOPORI course. The video explores origami as a scientific tool, emphasizing its role in design and innovation strategies. Presented by Sat Teixeira…
It's time to put the origami in our DNA Origami Reading Group! This week we're reading Rothemund's "Folding DNA to create nanoscale shapes and patterns" to understand this seminal paper in context! What did Rothemund know, and what did he intuit? Join us to discuss!
RT @Ryansikorski10:
RT @Ryansikorski10:
DNA origami - folding DNA to create nanoscale shapes and patterns. https://t.co/ixhSjrEC9G In #DNA nanotechnology, bottom-up fabrication explores the inherent properties of atoms and molecules to direct their self-organization and make relatively simple nanostructures.
RT @RafalBaker: Who says you can't have fun in the lab? These structures are made of multiple tiny single strands of DNA stapled together,…
RT @RafalBaker: Who says you can't have fun in the lab? These structures are made of multiple tiny single strands of DNA stapled together,…
Who says you can't have fun in the lab? These structures are made of multiple tiny single strands of DNA stapled together, with an avg diameter of ~100nm (~80,000x smaller than a common house-fly) Full article: Rothemund, P. Nature 440, 297–302 (2006). https://t.co/yeOPrSdPoi https://t.co/bp3t56qfiX
We got DNA for origami (https://t.co/PGZYIkvl5c), DNA for building small machines that help orient protein for cryo-EM (https://t.co/UZOry2r6En), and now DNA for organelle-specific membrane voltmeters!: https://t.co/gj7fUuVhIH
Here are three that come to my mind: Optical Conformal Mapping by Leonhardt https://t.co/vFBJZTO9BH Folding DNA to create nanoscale shapes and patterns by Rothemund https://t.co/uigNpP6bTV Exploring complex networks by @stevenstrogatz https://t.co/r7OgfXQAxb
Folding DNA to create nanoscale shapes and patterns. - Rothemund PW https://t.co/0JZpczP3Ps 2006, #DNAorigami
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