Embryo

EpiMedTech Global to Present Revolutionary Epigenetics Research at MedInvest Biotech & Pharma Investor Conference

Retrieved on: 
Tuesday, April 2, 2024

The presentation will spotlight groundbreaking advancements in DNA methylation and its significant potential in transforming global healthcare through early disease detection.

Key Points: 
  • The presentation will spotlight groundbreaking advancements in DNA methylation and its significant potential in transforming global healthcare through early disease detection.
  • DNA methylation, a critical process in epigenetic signaling, acts as a sophisticated regulatory mechanism, controlling gene expression without altering the DNA sequence itself.
  • "EpiMedTech Global is at the forefront of leveraging DNA methylation for early disease detection, aiming to bridge the vast gap between the potential of epigenetic research and its current clinical application," said Prof. Szyf.
  • Join us at MedInvest to discover how EpiMedTech Global is paving the way for a future where early detection and prevention are within reach for everyone, everywhere.

Synthetic human embryos let researchers study early development while sidestepping ethical and logistical hurdles

Retrieved on: 
Wednesday, February 7, 2024

This has made it difficult for scientists to understand early human development.

Key Points: 
  • This has made it difficult for scientists to understand early human development.
  • By offering new tools to explore the enigmatic earliest stages of human development, synthetic embryology can help researchers overcome the challenges of using real human embryos.
  • With these new models, researchers can also better understand conditions that affect human reproduction and development as well as maternal-fetal health, potentially leading to new therapies.

Making human embryos from stem cells

  • This triggers the egg to rapidly divide into embryonic cells that soon form an inner cell mass that eventually develops into the fetus and a outer layer of cells that will give rise to the placenta.
  • Synthetic embryology artificially recreates these developmental stages using human pluripotent stem cells derived from human embryos or induced from adult human cells.
  • Like early embryonic cells, these cells have the ability to develop into any type of cell in the human body.
  • Researchers created the first human embryo model from embryonic stem cells in 2014.
  • This pioneering model, also called a gastruloid, captured key aspects of early human development and showed that scientists can drive pluripotent stem cells to form patterned layers echoing the three germ layers and the outer layers of the embryo.

Advancements in human embryo models

  • Over the years, various models have been able to replicate different facets of human embryogenesis, such as amniotic sac development, germ layer formation and body plan organization.
  • However, none of these models fully captures the entire process of a single cell type developing into the complete structure of a whole embryo.
  • Blastoids form in a similar way to human embryos, starting from just a few cells that proliferate and organize themselves.
  • Recently, researchers have successfully created more complex models in the lab that mimic what happens after embryos attach to the womb.

Choosing the right models

  • This goal underscores the importance of carefully choosing the model best suited to the specific research objectives at hand.
  • Creating embryo models from a patient’s own cells could also allow researchers to study the genetics of development and aid in personalizing treatments.
  • The International Society for Stem Cell Research strictly prohibits transferring these embryo models into the uterus of a human or an animal.
  • Although these models mimic certain features of early developmental stages, they cannot and will not develop into the equivalent of a human baby after birth.


Min (Mia) Yang receives funding from University of Washington

Alife Health Partners with Ovation Fertility on Cutting-Edge AI Technology for Embryo Image Capture and Cataloguing

Retrieved on: 
Tuesday, February 6, 2024

SAN FRANCISCO, Feb. 6, 2024 /PRNewswire/ -- Alife Health ("Alife"), a fertility technology company building AI tools to advance in-vitro fertilization (IVF), announced today that it has partnered with Ovation® Fertility ("Ovation"), a US Fertility company and national network of laboratories to pilot the world's first embryo image cataloging software. This software could enable future AI-powered embryo selection. Alife's Embryo Assist™ software enables embryologists to seamlessly create digital records of every embryo, with the added benefit of leveraging Alife's Clinical Decision Support (CDS) algorithm to determine the best embryo for transfer.

Key Points: 
  • SAN FRANCISCO, Feb. 6, 2024 /PRNewswire/ -- Alife Health ("Alife"), a fertility technology company building AI tools to advance in-vitro fertilization (IVF), announced today that it has partnered with Ovation® Fertility ("Ovation"), a US Fertility company and national network of laboratories to pilot the world's first embryo image cataloging software.
  • Alife's Embryo Assist™ software enables embryologists to seamlessly create digital records of every embryo, with the added benefit of leveraging Alife's Clinical Decision Support (CDS) algorithm to determine the best embryo for transfer.
  • "The Alife Embryo Assist software provides our laboratories with a structured digital approach to a rather manual and cumbersome process.
  • Alife expects this tool to elevate laboratory quality-control measures by providing an activity and audit trail for every embryo, viewable in real-time.

Nathaniel A. Dyment, PhD, Presented With 2024 Kappa Delta Young Investigator Award for Research on Formation, Maintenance and Repair of Tendons and Ligaments

Retrieved on: 
Friday, February 2, 2024

The award recognizes outstanding clinical research related to musculoskeletal disease or injury by investigators under 40 years old.

Key Points: 
  • The award recognizes outstanding clinical research related to musculoskeletal disease or injury by investigators under 40 years old.
  • Unfortunately, clinicians and researchers lack biological benchmarks to assess the repairs of these tissues, hampering the development of new therapies.
  • "Therefore, the development of treatments to successfully repair or regenerate tendons is very difficult.
  • The degeneration that is happening in tendons can take decades to develop, making successful treatment of these injuries a big challenge.

Breaking the Barrier: TheWell Bioscience Launches VitroGel-Based Cell Invasion Assay Kits to Help Researchers Explore More Types of Migration and Invasion Studies Faster and Easier

Retrieved on: 
Monday, December 18, 2023

Using the xeno-free VitroGel® hydrogels, these new kits revolutionize how researchers study cell migration and invasion, offering unprecedented accuracy, efficiency, and reliability for cell migration assays.

Key Points: 
  • Using the xeno-free VitroGel® hydrogels, these new kits revolutionize how researchers study cell migration and invasion, offering unprecedented accuracy, efficiency, and reliability for cell migration assays.
  • The VitroGel-Based Cell Invasion Assay Kits protocol can be completed within 30 minutes compared to hours with an assay kit using an animal-based extracellular matrix (ECM).
  • Start with the "ready-to-use" VitroGel® Cell Invasion Assay Kit (which includes our VitroGel® Hydrogel Matrix ) for traditional cell invasion assay studies.
  • In addition, all the VitroGel-Based Cell Invasion Assay Kits can be adapted for laboratory automation for high-throughput assay analysis.

HKUST Holds 31st Congregation Conferring Honorary Doctoral Degrees on Six Distinguished Leaders

Retrieved on: 
Friday, November 17, 2023

The event witnessed the conferral of Honorary Doctorates upon six prominent academics and community leaders by HKUST Pro-Chancellor Dr. John CHAN Cho-Chak, in acknowledgment of their remarkable accomplishments and impactful contributions.

Key Points: 
  • The event witnessed the conferral of Honorary Doctorates upon six prominent academics and community leaders by HKUST Pro-Chancellor Dr. John CHAN Cho-Chak, in acknowledgment of their remarkable accomplishments and impactful contributions.
  • Also joining the ceremony as officiants were HKUST Council Chairman Prof. Harry SHUM, HKUST President Prof. Nancy IP and other members of the senior management team.
  • "HKUST has provided you with a world-class education and nurtured values such as integrity, compassion, and a commitment to excellence.
  • The 31st Congregation conferred 2,472 bachelor's degrees, 3,394 master's degrees, and 354 doctoral degrees, expanding the HKUST alumni community to over 99,000 members.

HKUST Holds 31st Congregation Conferring Honorary Doctoral Degrees on Six Distinguished Leaders

Retrieved on: 
Friday, November 17, 2023

The event witnessed the conferral of Honorary Doctorates upon six prominent academics and community leaders by HKUST Pro-Chancellor Dr. John CHAN Cho-Chak, in acknowledgment of their remarkable accomplishments and impactful contributions.

Key Points: 
  • The event witnessed the conferral of Honorary Doctorates upon six prominent academics and community leaders by HKUST Pro-Chancellor Dr. John CHAN Cho-Chak, in acknowledgment of their remarkable accomplishments and impactful contributions.
  • Also joining the ceremony as officiants were HKUST Council Chairman Prof. Harry SHUM, HKUST President Prof. Nancy IP and other members of the senior management team.
  • "HKUST has provided you with a world-class education and nurtured values such as integrity, compassion, and a commitment to excellence.
  • The 31st Congregation conferred 2,472 bachelor's degrees, 3,394 master's degrees, and 354 doctoral degrees, expanding the HKUST alumni community to over 99,000 members.

Next Fertility Selects Fairtility's CHLOE™ Transparent AI Decision Support Technology for Network Clinics Across Spain

Retrieved on: 
Wednesday, November 15, 2023

TEL AVIV, Israel, Nov. 15, 2023 /PRNewswire/ -- Fairtility, the transparent AI innovator powering reproductive care for improved outcomes, today announced that Next Fertility, part of Next Clinics, an international group and one of Europe's largest assisted reproduction and healthcare providers, has chosen to implement CHLOE™ across its fertility clinics in Spain.

Key Points: 
  • Following a successful trial period, Next Fertility elected to expand its implementation of Fairtility's technology, from one clinic – Next Fertility Murcia, across all seven group clinics in Spain.
  • Next Fertility clinics in Murcia, Valencia, Sevilla, Madrid, Huelva, Burgos and Vitoria will all utilize CHLOE EQ to support embryo quality assessment in labs.
  • By interconnecting the various systems in labs across the NEXT Fertility network in Spain, CHLOE will automate and standardize data collection and analysis processes and streamline workflows for maximum efficiency across network clinics.
  • Next Fertility is part of Next Clinics and is one of Europe's largest reproductive care networks with clinics across eight countries with 22 IVF clinics and seven diagnostics laboratories operating across the network.

How animals get their skin patterns is a matter of physics – new research clarifying how could improve medical diagnostics and synthetic materials

Retrieved on: 
Wednesday, November 8, 2023

The colors making up these patterns must be distinct and well separated to be effective.

Key Points: 
  • The colors making up these patterns must be distinct and well separated to be effective.
  • For instance, as a warning signal, distinct colors make them clearly visible to other animals.
  • A question naturally arises: How can distinct color patterns form in the presence of diffusion?

Movement and boundaries

  • However, in mathematical models, the boundaries between color regions are fuzzy due to diffusion.
  • This is unlike in nature, where boundaries are often sharp and colors are well separated.


Our team thought a clue to figuring out how animals create distinctive color patterns could be found in lab experiments on micron-sized particles, such as the cells involved in producing the colors of an animal’s skin. My work and work from other labs found that micron-sized particles form banded structures when placed between a region with a high concentration of other dissolved solutes and a region with a low concentration of other dissolved solutes.

  • As the red dye moves into an area where it is at a lower concentration, nearby particles will be carried along with it.
  • You benefit from diffusiophoresis whenever you do your laundry: Dirt particles move away from your clothing as soap molecules diffuse out from your shirt and into the water.

Drawing sharp boundaries

  • We wondered whether Turing patterns composed of regions of concentration differences could also move micron-sized particles.
  • If so, would the resulting patterns from these particles be sharp and not fuzzy?
  • Diffusiophoresis resulted in sharper movement patterns, confirming its role as a physical mechanism behind biological pattern formation.

Learning nature’s trick

  • Lab experiments have shown that scientists can use diffusiophoresis to create membraneless water filters and low-cost drug development tools.
  • Our work suggests that combining the conditions that form Turing patterns with diffusiophoresis could also form the basis of artificial skin patches.

The work ahead

  • Besides animal skin patterns, Turing patterns are also crucial to other processes such as embryonic development and tumor formation.
  • Our work suggests that diffusiophoresis may play an underappreciated but important role in these natural processes.


Ankur Gupta receives funding from NSF (CBET - 2238412) and ACS Petroleum Research Fund (65836 - DNI9).

HKG Epitherapeutics CEO Delivered a Keynote Presentation at BIOHK2023

Retrieved on: 
Monday, September 18, 2023

HONG KONG, Sept. 18, 2023 /PRNewswire/ -- HKG Epitherapeutics ("HKG" or the "Company"), a commercial-stage biotech company developing novel tools for the early detection of cancer and promoting healthy aging, announced that its CEO, Prof. Moshe Szyf, delivered a keynote presentation at BIOHK2023 titled, "DNA methylation in health and disease; implications for early prediction, prevention and intervention." The event took place in Hong Kong, China on September 13-16, 2023.

Key Points: 
  • Presentation Highlights the Implications of DNA Methylation for Early Disease Prediction, Prevention and Intervention
    HONG KONG, Sept. 18, 2023 /PRNewswire/ -- HKG Epitherapeutics ("HKG" or the "Company"), a commercial-stage biotech company developing novel tools for the early detection of cancer and promoting healthy aging, announced that its CEO, Prof. Moshe Szyf, delivered a keynote presentation at BIOHK2023 titled, "DNA methylation in health and disease; implications for early prediction, prevention and intervention."
  • "The advancements HKG has made in DNA methylation research have been pivotal in advancing a holistic approach to healthcare.
  • Testing has always lagged treatment options, and by improving testing, we are improving outcomes for patients and increasing their life and healthspans," said Prof. Szyf.
  • Epigenetics is the study of how development, behaviors and environment can impact the way a person's genes work.