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genetics

Fluorescent microscopy image of two adult&nbsp;<em >C. elegans</em> and several offspring.
Automating In Vivo Screens and Challenging Dogma 
Deanna MacNeil, PhD | Jun 19, 2024 | 3 min read
Scientists built a microfluidic lab-on-a-chip device that accelerates compound screens and phenotype analyses in C. elegans models of reproductive aging.
A circle containing many smaller shapes surrounded by circles containing a single abstract shape.
Building Cells from the Bottom Up
Danielle Gerhard, PhD | Jun 14, 2024 | 8 min read
To understand the molecular blueprint for life, Cees Dekker is starting from scratch, building fully synthetic cells that are capable of cell division.
Futuristic low poly-style image of DNA coming out of a pill
The Promise and Power of Pharmacogenomics
Thermo Fisher Scientific | 1 min read
Technological advances and high throughput techniques offer scientists speed and scalability in precision medicine research and applications.
Image of Alison Van Eenennaam holding a black calf in her arms as they pose for the camera.
Herding Innovation in Livestock
Laura Tran, PhD | Jun 14, 2024 | 9 min read
Alison Van Eenennaam uses genome-editing technologies to aid beef cattle production and animal welfare.
3D cubes showing letters representing the four DNA bases (adenine, guanine, cytosine, and thymine) and small DNA helices.
Discovering the Functions of Noncoding Sequence Variants
Niki Spahich, PhD | Jun 12, 2024 | 4 min read
Neville Sanjana explored noncoding genomic regions by combining pooled CRISPR screening and single cell sequencing.
Digital gears on a future tech background
Enhancing Efficiency in the Clinical Research Laboratory
Thermo Fisher Scientific and The Scientist | 1 min read
Automation, multiplexing, artificial intelligence, and more come together to build a better laboratory environment.  
A light blue circular double helix against a dark blue background.
Artificial Chromosomes for Disease Modeling
Holly Barker, PhD | Jun 12, 2024 | 3 min read
A new technique for synthesizing chromosomes can introduce panels of genes into disease models to facilitate drug testing.
Graphic depicting the microbiota consisting of various blue and red bacterial cells
Boosting Bacterial Genomes to Better Explore the Microbiome
Aparna Nathan, PhD | Jun 7, 2024 | 4 min read
Gang Fang’s new metagenomics method helps sequence rare bacteria.
In situ hybridization procedure being conducted in a laboratory.
Tips and Tricks for In Situ Hybridization
Priyom Bose, PhD | 8 min read
In situ hybridization is a powerful molecular technique for detecting and localizing specific nucleic acids in cytological samples. 
Cartoon of clock faces arranged in the shape of a brain.
Human Neurons Play the Waiting Game
Shelby Bradford, PhD | Jun 5, 2024 | 4 min read
When it comes to development, an epigenetic clock may be responsible for human neurons’ slower maturation.
Image of retinal organoid showing blue cones in cyan and green/red cones in green. Rod cells are marked in magenta.
Cracking the Color Cone-undrum in Human Vision
Laura Tran, PhD | Jun 3, 2024 | 2 min read
Cell color perception fates are determined by a signaling mechanism, not chance, during retinal development.
Harnessing Metagenomics for Health and Disease Research
Harnessing Metagenomics for Health and Disease Research
The Scientist Staff | 1 min read
Discover how metagenomics approaches provide insights into human diseases.
Small <em >Arabidopsis</em> seedlings are grown indoors.
Bioengineering Interkingdom Communication
Hannah Thomasy, PhD | Jun 3, 2024 | 2 min read
Genetically edited bacteria sense the environment and report their findings to “listening” plants.
A 3D spherical neutrophil animation with a pink, polysegmented nucleus
The Nucleus’ Secret to Shapeshifting
Kamal Nahas, PhD | May 31, 2024 | 4 min read
Neutrophils contort their nuclei into various shapes by moderating one key regulatory protein previously shown to orchestrate DNA organization.
iStock
Understanding the Effects of Extrachromosomal DNA on Cancer
The Scientist | 1 min read
Lukas Chavez uses multiomic techniques to study how extrachromosomal DNA (ecDNA) contributes to tumor heterogeneity and gene expression changes in medulloblastoma.
Several X-shaped duplicated chromosomes floating on a blurry blue background.
Centromeres Mutate More Rapidly Than Expected
Kamal Nahas, PhD | May 30, 2024 | 4 min read
After sequencing centromeres in humans and other primates, researchers found that they vary greatly across species and potentially contribute to aging and disease.
A Hydractinia polyp with stinging cells shown in red throughout the body and the tentacles.
With Neither Brains nor Brawn, Jellyfish and Relatives Developed Subcellular Weapons Instead
Hannah Thomasy, PhD | May 29, 2024 | 6 min read
Anna Klompen explained how cnidarian stinging cells harpooned their way into her heart and could help answer fundamental questions in biology.
A DNA strand and a barcode representing the DNA barcoding technique.
DNA Barcoding: Species Detection and High Throughput Assays
Priyom Bose, PhD | 7 min read
DNA barcoding is a fast sequencing-based technique that scientists use to catalog all life on Earth or perform high throughput bioanalyses.
Brown and black flat-coated retrievers sit on a path in the woods.
Obesity Research is Going to the Dogs
Hannah Thomasy, PhD | May 27, 2024 | 5 min read
Gene mutations in rotund retrievers shed light on the neural regulation of body weight.
Image of a stem cell and DNA against a light background.
Using Genetic Cartography to Map Cell Lineage
Laura Tran, PhD | May 17, 2024 | 4 min read
By coupling cell lineage tracking with molecular gene expression patterns, researchers deciphered how gene activity influences immune cell production.
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