Multimedia search results
26 Results for ''
-
Video/AnimationSeed-dependent crisscross DNA-origami slatsThis animation explains how the newly invented crisscross origami method can be used to build functionalized micron-scale DNA megastructures composed of many unique DNA origami “slats,” each with their own complexity and interactive properties. Credit: Wyss Institute at Harvard University -
Video/AnimationLight-Seq: Light-Directed In Situ Barcoding of BiomoleculesThis animation explains how the Light-Seq technology works to barcode and deep-sequence selected cell populations in tissue samples, and how the team applied it to the analysis of distinct and rare cells in the mouse retina. Credit: Wyss Institute at Harvard University. -
Audio/PodcastIlluminating Biological Context with Josie Kishi – Translation by Fifty YearsTechnologies like next-generation sequencing allow us to understand which RNA transcripts and proteins are expressed in biological tissues. However, it’s often equally important to understand how cells or molecules are positioned relative to one another! Whether it be a cell changing its shape, an organelle ramping up a metabolic process, or a DNA molecule traveling... -
Video/AnimationLighting up proteins with Immuno-SABERThis animation explains how Immuno-SABER uses the Primer Exchange Reaction (PER) to enable the simultaneous visualization of multiple proteins in tissues in different applications. Credit: Wyss Institute at Harvard University. -
Video/AnimationSABER-FISH: Enabling the sensitive and multiplexed detection of nucleic acids within thick tissuesThis animation shows how SABER-FISH uses a suite of DNA nanotechnological methods that together enable the sensitive and multiplexed detection of DNA and RNA targets within cells and thick tissues. Credit: Wyss Institute at Harvard University -
Video/AnimationLight-driven fine chemical production in yeast biohybridsWyss Institute Core Faculty member Neel Joshi explains the concept of yeast biohybrids and how they can be used to harvest energy from light to drive the production of fine chemicals. Credit: Wyss Institute at Harvard University -
Video/AnimationabbieSenseabbieSense is a Wyss technology that can detect histamine levels in human body fluids and determine the severity of an allergic reaction, which could help save the lives of patients with severe allergies. Credit: Wyss Institute at Harvard University -
Video/AnimationToehold Exchange ProbesThis animation explains how toehold probes consisting of a “probe strand” and a “protector strand” are assembled and how they leverage thermodynamic principles to allow the specific detection of a correct target sequence, or to prevent them from detecting a spurious target sequence that can differ from the correct target sequence by only a single... -
Video/AnimationPrimer Exchange ReactionIn this video, Jocelyn Kishi illustrates how Primer Exchange Reaction (PER) cascades work to autonomously create programmable long single-stranded DNA molecules. Credit: Wyss Institute at Harvard University. -
Video/AnimationWhat Is BIOMOD?BIOMOD is a biomolecular design competition for students created by the Wyss Institute for Biologically Inspired Engineering at Harvard University. Each year BIOMOD holds a Jamboree, an annual conference at which all BIOMOD teams convene to present their work from the summer. This year’s Jamboree will take place in Genentech Hall at UCSF in San Francisco,... -
Audio/PodcastWilliam Shih: Lego-Style Construction of Future Therapeutics From DNAListen to Wyss Core Faculty member William Shih’s lecture on how custom molecular shapes can be designed using DNA building blocks and how these minuscule devices could have a profound impact on fields ranging from molecular biophysics to therapeutics to nano-optics for decades to come. Shih’s lecture is part of the ArtScience lecture series at... -
Video/AnimationShear-Thinning Biomaterial: Catheter InjectionThis movie shows the solid state of the shear-thinning biomaterial immediately after release from the catheter into an aqueous solution (00:04). The STB is cohesive and remains as one solid piece throughout the injection process. There is no noticeable dissolution of the STB into the solution, suggesting it is stable immediately after being discharged from... -
Audio/PodcastDisruptive: Fluorescent In Situ SequencingDeveloped at the Wyss, FISSEQ (fluorescent in situ sequencing) is a spatial gene sequencing technology that reads and visualizes the three-dimensional coordinates of RNA and mRNAs – the working copies of genes – within whole cells and tissues. FISSEQ affords insights into biological complexity that until now have not been possible. In this episode of... -
Audio/PodcastDisruptive: Rapid, Low-Cost Detection of Zika & Future PandemicsThe rapid emergence of the Zika virus on the world stage calls for a detection system that is just as quick. In this episode of Disruptive, Wyss Core Faculty member and MIT professor Jim Collins and University of Toronto Assistant Professor Keith Pardee discuss how they developed a low cost, paper-based diagnostic platform that can... -
Audio/PodcastDisruptive: Molecular RoboticsHow can DNA be programmed to build novel structures, devices, and robots? We have taken our understanding of DNA to another level, beginning to take advantage of some of DNA’s properties that have served nature so well, but in ways nature itself may have never pursued. Humans can now use DNA as a medium for... -
Video/AnimationDetecting Zika: A platform for rapid, low-cost diagnosticsIn this video, a team of collaborators led by Wyss Core Faculty member James Collins discuss a low-cost, paper-based diagnostic system that they developed for detecting specific strains of the Zika virus, with the goal that it could soon be used in the field to easily screen blood, urine, or saliva samples. Credit: Wyss Institute... -
Video/AnimationDNA NanoswitchesGel electrophoresis, a common laboratory process, sorts DNA or other small proteins by size and shape using electrical currents to move molecules through small pores in gel. The process can be combined with novel DNA nanoswitches, developed by Wyss Associate Faculty member Wesley Wong, to allow for the simple and inexpensive investigation of life’s most... -
Video/AnimationToehold SwitchesIn this animation, Wyss Institute Postdoctoral Fellow Alex Green, Ph.D., the lead author of “Toehold Switches: De-Novo-Designed Regulators of Gene Expression”, narrates a step-by-step guide to the mechanism of the synthetic toehold switch gene regulator. Credit: Wyss Institute at Harvard University -
Video/AnimationProgrammable Paper: Advances in Synthetic BiologyWyss Institute scientists discuss the collaborative environment and team effort that led to two breakthroughs in synthetic biology that can either stand alone as distinct advances – or combine forces to create truly tantalizing potentials in diagnostics and gene therapies. Credit: Wyss Institute at Harvard University. -
Video/AnimationVirus-inspired DNA NanodevicesWyss Institute Core Faculty member William Shih and Technology Development Fellow Steven Perrault explain why DNA nanodevices need protection inside the body, and how a viral-inspired strategy helps protect them. Credit: Wyss Institute at Harvard University -
Video/AnimationDNA CagesTo create supersharp images of their cage-shaped DNA polyhedra, the scientists used DNA-PAINT, a microscopy method that uses short strands of DNA (yellow) labeled with a fluorescent chemical (green) to bind and release partner strands on polyhedra corners, causing them to blink. The blinking corners reveal the shape of structures far too small to be... -
Video/AnimationBuilding 3D Structures with DNA BricksThe nanofabrication technique, called ‘DNA-brick self-assembly,’ uses short, synthetic strands of DNA that work like interlocking Lego bricks. It capitalizes on the ability to program DNA to form into predesigned shapes thanks to the underlying ‘recipe’ of DNA base pairs. This animation accurately shows how the DNA strands self assemble to build a structure.DNA Nanostructures... -
Video/AnimationDNA Bricks: Molecular AnimationThe nanofabrication technique, called ‘DNA-brick self-assembly,’ uses short, synthetic strands of DNA that work like interlocking Lego bricks. It capitalizes on the ability to program DNA to form into predesigned shapes thanks to the underlying “recipe” of DNA base pairs. Animation created by Digizyme for the Wyss Institute. Credit: Wyss Institute at Harvard University -
Video/AnimationInformation Storage in DNAGeorge Church and Sriram Kosuri discuss the benefits of using DNA as a storage medium and the approach they developed. Credit: Wyss Institute at Harvard University -
Video/AnimationClot-busting nanotherapeuticWyss Core Faculty member Donald E. Ingber describes the clot-busting nanotherapeutic. Credit: Wyss Institute at Harvard University -
Video/AnimationMaking Structures with DNA “Building Blocks”Researchers at the Wyss Institute have developed a method for building complex nanostructures out of short synthetic strands of DNA. Called single-stranded tiles (SSTs), these interlocking DNA “building blocks,” akin to Legos, can be programmed to assemble themselves into precisely designed shapes, such as letters and emoticons. Credit: Wyss Institute at Harvard University