All Stories

  1. 85 million cells — and counting — at your fingertips
  2. No installation required: how WebAssembly is changing scientific computing
  3. AI and science: what 1,600 researchers think
  4. From better bridges to more efficient cars: how pocket calculators changed the world
  5. How to make your scientific data accessible, discoverable and useful
  6. Six tips for better coding with ChatGPT
  7. The sleight-of-hand trick that can simplify scientific computing
  8. Smart software untangles gene regulation in cells
  9. A graphics toolkit for visualizing genome data
  10. Six tips for better spreadsheets
  11. Cut the tyranny of copy-and-paste with these coding tools
  12. The giant plan to track diversity in research journals
  13. How to fix your scientific coding errors
  14. Terra takes the pain out of ‘omics’ computing in the cloud
  15. Python power-up: new image tool visualizes complex data
  16. How to make your research reproducible
  17. Single-cell proteomics takes centre stage
  18. Reactive, reproducible, collaborative: computational notebooks evolve
  19. Five reasons why researchers should learn to love the command line
  20. Ten computer codes that transformed science
  21. Sliced, diced and digested: AI-generated science ready in minutes
  22. Why scientists are turning to Rust
  23. tl;dr: this AI sums up research papers in a sentence
  24. Streamline your writing — and collaborations — with these reference managers
  25. Challenge to scientists: does your ten-year-old code still run?
  26. Alexa, do science! Voice-activated assistants hit the lab bench
  27. The software that powers scientific illustration
  28. Synchronized editing: the future of collaborative writing
  29. Mischief-making bots attacked my scientific survey
  30. Make code accessible with these cloud services
  31. The microscope makers putting ever-larger biological samples under the spotlight
  32. Workflow systems turn raw data into scientific knowledge
  33. Starfish enterprise: finding RNA patterns in single cells
  34. Julia: come for the syntax, stay for the speed
  35. The computational protein designers
  36. The new techniques revealing the varied shapes of chromatin
  37. 11 ways to avert a data-storage disaster
  38. A simple approach to dating bones
  39. Pioneering ‘live-code’ article allows scientists to play with each other’s results
  40. The race for enzymatic DNA synthesis heats up
  41. Web service makes big data available to neuroscientists
  42. Why Jupyter is data scientists’ computational notebook of choice
  43. Machine learning gets to grips with plankton challenge
  44. A toolkit for data transparency takes shape
  45. Software training in Antarctica
  46. The hackers teaching old DNA sequencers new tricks
  47. Map-making on a budget
  48. Data visualization tools drive interactivity and reproducibility in online publishing
  49. Plot a course through the genome
  50. Cell engineering: How to hack the genome
  51. Single-cell sequencing made simple
  52. Pocket laboratories
  53. The Internet of Things comes to the lab
  54. How scientists use Slack
  55. Democratic databases: science on GitHub
  56. ‘Kudos’ promises to help scientists promote their papers to new audiences
  57. THE QUEST TO DESIGN BETTER EXPERIMENTS
  58. LIGHTING OUR MEMORIES
  59. NIH dengue vaccine leaps into phase 3 studies
  60. The struggle with image glut
  61. DEMOCRATIZING MASS SPECTROMETRY
  62. The manuscript-editing marketplace
  63. WHEN TWO IS BETTER THAN ONE
  64. The code librarian
  65. Xenotransplantation makes a comeback
  66. Annotating the scholarly web
  67. THE BACTERIA AMONG US
  68. Eight ways to clean a digital library
  69. MAKING SENSE OF OUR VARIATION
  70. SINGLE MOLECULE ENZYMOLOGY FINDS ITS STRIDE
  71. Biomedical research: Drug hunters wanted
  72. Lab-inventory management: Time to take stock
  73. MAPPING CHROMOSOME NEIGHBORHOODS
  74. The trouble with reference rot
  75. GUIDING OUR PCR EXPERIMENTS
  76. CRISPR/CAS FACES THE BIOETHICS SPOTLIGHT
  77. THE IMMORTAL CHALLENGE
  78. Rate that journal
  79. Programming: Pick up Python
  80. Spotlights on RecentJACSPublications
  81. FINDING FLAVOR IN FOOD
  82. MAPPING NEURAL CONNECTIONS
  83. Molecular biology: Genetic touch-ups
  84. Scientific writing: the online cooperative
  85. CORRELATING LIGHT AND ELECTRON MICROSCOPY
  86. OPTOGENETICS TURNS 10
  87. CELL CULTURE'S SPIDER SILK ROAD
  88. The Twisted Path to Pluripotency
  89. The Antibody Challenge
  90. Decoding protein structure, one femtosecond at a time
  91. Seamlessly rewriting the lab cloning manual
  92. BioTechniques:Celebrating 30 Years of Methods Development
  93. Assume Nothing: The Tale of Circular RNA
  94. How low can you go? Studying transcription at the single-cell level
  95. Visiting “Noncodarnia”
  96. The chemist in the kitchen
  97. The New Genetic Engineering Toolbox
  98. In vivo imaging: Raman-style
  99. Finding the true $1000 genome
  100. Pimp my spec!
  101. Fresh views on DNA structure
  102. Genome engineering: writing a better genome
  103. Tearing the Top Off ‘Top-Down’ Proteomics
  104. The new molecular gastronomy, or, a gustatory tour of network analysis
  105. RNAi Therapeutics: The Teenage Years
  106. Single-cell Genomics: Defining Microbiology's Dark Matter
  107. Go Cell, Go!
  108. Microfluidics, macro-impacts
  109. Run your lab on dollars a day!
  110. Bridge funding: How to stay afloat
  111. Antibodies 2.0
  112. The Ever Folding Protein Landscape
  113. Clinical science: Research and repair
  114. Curing Cell Lines
  115. Copy Number Variants: Mapping the Genome’s ‘Land Mines’
  116. Coding your way out of a problem
  117. A STED-y route to commercialization
  118. Metabolomics: Where seeing is believing
  119. What Lies Beneath: In Vivo Stem Cell Imaging
  120. The Human Proteome Project Takes Shape Down Under
  121. Making Contact with Sequencing's Fourth Generation
  122. Bright Lights, Single Molecules
  123. Cybersecurity: How safe are your data?
  124. Comparative proteomics study suggests germ-cell-derived stem cells can stand in for ESCs
  125. iTRAQ gets put to the test
  126. Novel twist on the biotin switch cracks endothelial cell S -nitrosoproteome
  127. Rites of (stem cell) passage
  128. Shrimp study exposes mechanisms of innate immunity
  129. Neuropeptidomics study profiles hypothalamic “nucleus”, individual cells
  130. A cool way to learn about climate change
  131. Snake venomics uncoils venom composition, evolution
  132. A chemical killer unmasked
  133. Identification of a c-myb attenuator-binding factor
  134. Cloning of human and bovine homologs of SNF2/SWI2: a global activator of transcription in yeast S.cerevisiae