Multimedia
News & Podcasts
U-M's Sean Morrison discusses embryonic stem cell research in Michigan after Proposal 2
1/6/2009, WDET radio’s Detroit Today program
Nature Podcast — Cancer stem cells
12/4/2008, Nature Podcast
Cell Research and the Election
10/31/2008, Science Friday
The Michigan Proposals — An Off the Record Special
10/24/2008, WKAR
Stem Cell Research — Will it Fly in Michigan?
WXYZ
The Issues and the U: Stem Cell Ballot Measure
The Michigan Daily
Dr. Jack Mosher on Stem Cell Research (mp3)
9/29/2008, WHMI 93.5 FM
Monday’s “Ebling and You” segment with U-M Center for Stem Cell Biology Director Sean Morrison (mp3)
9/22/2008, WILS 1320 AM
U-M Videos
U-M’s Sean Morrison comments on revised federal guidelines for embryonic stem cell research.
Stem Cell Research: The Road to Cures
The Search for Cures for Neurological Disease
Five things you should know about stem cell research
How Understanding Embryonic Stem Cells Advances Disease Research
Cancer Discoveries & Therapies at the University of Michigan
Focus on Science: Life is for the Living Trailer
The science behind embryonic stem cells
- Embryonic stem cell research: What the science really says
- Embryonic stem cell research: What is at stake in Michigan
- Embryonic stem cell research: The facts about science
- Embryonic stem cell research: Ethics & morality
A question and answer session with Sean Morrison, Director of the University of Michigan Center for Stem Cell Biology.
Life is for the living trailer — U-M Student Video
A documentary film about embryonic stem cell research by filmmakers Michael Rubyan, an undergraduate U-M pre-med student, and Deborah Orley.
Image Gallery
This highly magnified human blastocyst (the early embryo) is about the same size as a period at the end of a printed sentence. Embryonic stem cells are created from the inner cell mass from leftover embryos at this stage after egg and sperm are mixed in a dish in a fertility clinic. Excess embryos used for research would never be used for fertility purposes, but are routinely discarded as medical waste. Courtesy of Gary Smith, PhD
A magnified image (200x) of a thousands of human embryonic stem cells growing together as a colony (the silver cluster of cells in the center of the image) growing on top of mouse feeder cells (the dark filamentous structures). These cells can become any cell type in the body and divide indefinitely. Courtesy of Jack Mosher, PhD.
High magnification image of human embryonic stem cells differentiated into neurons (red cells) by treating cells with a growth factor. These could be used to study the development of the nervous system, birth defects or to replace cells lost to injury, aging or diseases such as Parkinson’s. Courtesy of Sue O'Shea, PhD
