Matching Items (6)
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Description
In this paper, I aim to assess the ethical and policy issues at the forefront of developmental biology, mainly, the 14-day guideline dictating human embryo research. Ever since the invention of in vitro fertilization in the 1970s, the research landscape of human embryo research has been well explored. Now, there

In this paper, I aim to assess the ethical and policy issues at the forefront of developmental biology, mainly, the 14-day guideline dictating human embryo research. Ever since the invention of in vitro fertilization in the 1970s, the research landscape of human embryo research has been well explored. Now, there are new embryonic technologies and human embryonic stem cell based models that many believe do not fit into current guidelines. This paper analyzes four of these new technologies-- stem cell derived gametes, embryoids, 3D printed embryos and synthetic embryos-- in order to explore the impetus for reopening the debate on the 14-day guideline. The paper then explores current research and research projects while comparing and contrasting science as well as the potential for moral status and how that impacts regulation. Current United States policies and regulations as well as current professional society guidelines are broken down to fully grasp the political landscape surrounding human embryo research. Notably, current policies include the complete lack of a federal definition of an embryo as well as the Dickey-Wicker Amendment which restrict funding for human embryo research. It is thus advised that these, along with the 14 day guideline, are updated in order to encapsulate the early human developmental research landscape and promote research. This paper ends with an in depth policy recommendation including (but not limited to) bill language, suggested definitions and potential strategies.
ContributorsNadone, Haley (Author) / Robert, Jason (Thesis director) / Frow, Emma (Committee member) / School of Life Sciences (Contributor) / School of Politics and Global Studies (Contributor) / Barrett, The Honors College (Contributor)
Created2020-05
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Description

In 2007, Françoise Baylis and Jason Scott Robert published “Part-Human Chimeras: Worrying the Facts, Probing the Ethics” in The American Journal of Bioethics. Within their article, hereafter “Part-Human Chimeras,” the authors offer corrections on “Thinking About the Human Neuron Mouse,” a report published in The American Journal of Bioethics in

In 2007, Françoise Baylis and Jason Scott Robert published “Part-Human Chimeras: Worrying the Facts, Probing the Ethics” in The American Journal of Bioethics. Within their article, hereafter “Part-Human Chimeras,” the authors offer corrections on “Thinking About the Human Neuron Mouse,” a report published in The American Journal of Bioethics in 2007 by Henry Greely, Mildred K. Cho, Linda F. Hogle, and Debra M. Satz, which discussed the debate on the ethics of creating part-human chimeras. Chimeras are organisms that contain two or more genetically distinct cell lines. Both publications discuss chimeras with DNA from different species, specifically in response to studies in which scientists injected human brain cells into mice. “Part-Human Chimeras,” contributes to a chain of ethical and scientific discussion that occurred in the mid-2000s on whether people should be able to conduct research on chimeras, especially in embryos.

Created2021-06-19
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In 2006, bioethicist Jason Scott Robert published “The Science and Ethics of Making Part-Human Animals in Stem Cell Biology” in The FASEB Journal. There, he reviews the scientific and ethical justifications and restrictions on creating part-human animals. Robert describes part-human animals, otherwise known as chimeras, as those resulting from the

In 2006, bioethicist Jason Scott Robert published “The Science and Ethics of Making Part-Human Animals in Stem Cell Biology” in The FASEB Journal. There, he reviews the scientific and ethical justifications and restrictions on creating part-human animals. Robert describes part-human animals, otherwise known as chimeras, as those resulting from the intentional combination of human and nonhuman cells, tissues, or organs at any stage of development. He specifically criticizes restrictions against creating part-human animals made by the National Academy of Sciences, or NAS, in 2005, arguing that while they ensure that such research is morally justifiable, they might limit scientists from conducting useful science using part-human animals or entities. Robert challenges the moral rationales behind prohibiting chimera research, arguing that they may impede scientists from conducting research that could have important benefits to biology and medicine, and suggests how to balance the conflicting moral and scientific needs of such science.

Created2021-05-25
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Description

In 2015, biologist Helena D. Zomer and colleagues published the review article “Mesenchymal and Induced Pluripotent Stem Cells: General Insights and Clinical Perspectives” or “Mesenchymal and Induced Pluripotent Stem Cells” in Stem Cells and Cloning: Advances and Applications. The authors reviewed the biology of three types of pluripotent stem cells,

In 2015, biologist Helena D. Zomer and colleagues published the review article “Mesenchymal and Induced Pluripotent Stem Cells: General Insights and Clinical Perspectives” or “Mesenchymal and Induced Pluripotent Stem Cells” in Stem Cells and Cloning: Advances and Applications. The authors reviewed the biology of three types of pluripotent stem cells, embryonic stem cells, or ESCs, mesenchymal stem cells, or MSCs, and induced pluripotent stem cells, or iPS cells. Pluripotent stem cells are a special cell type that can give rise to other types of cells and are essential for development. The authors describe the strengths and weaknesses of each type of stem cell for regenerative medicine applications. They state that both MSC and iPS types of stem cells have the potential to regenerate tissues among many other therapeutic possibilities. In their article, Zomer and colleagues review the potential for MSCs and iPS cells to reshape the field of regenerative and personal medicine.

Created2021-08-04
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Description

The California Stem Cell Research and Cures Act, also called Proposition 71, was a ballot
initiative proposed by California voters in 2004 to allocate three billion dollars of state
funds for stem cell research over ten years. Endorsed by California scientists and
patient-advocates, Prop 71 passed on

The California Stem Cell Research and Cures Act, also called Proposition 71, was a ballot
initiative proposed by California voters in 2004 to allocate three billion dollars of state
funds for stem cell research over ten years. Endorsed by California scientists and
patient-advocates, Prop 71 passed on 2 November 2004, amending the state constitution to make
stem cell research a constitutional right. In addition, Prop 71 led to the creation of the
California Institute for Regenerative Medicine (CIRM), in San Francisco, California to allocate
funds and oversee stem cell research in the state.

Created2014-04-03
Description

In the western medicine, there are many forms of medicines and therapies that have not yet been formally recognized by major government health organizations like the Food and Drug Administration (FDA). These therapies are also considered quite controversial by health-care workers within our western society. As such, the implications of

In the western medicine, there are many forms of medicines and therapies that have not yet been formally recognized by major government health organizations like the Food and Drug Administration (FDA). These therapies are also considered quite controversial by health-care workers within our western society. As such, the implications of these medicines from a health/economics view show that insurance agencies have not formally added them to policies. In this documentary, we will explain and analyze the function and purpose of stem cell therapy (STT) injections and the use of biologics, which is defined as the medication produced from our own blood and proteins. We will fill in the gaps with knowledge regarding regenerative medicine, such as the functions and properties of stem cells and its lack of standardization in therapeutics. After providing further knowledge on these topics, we will transition into the health/economic perspective encompassing insurance coverage, government funding, FDA regulation and its potential future.

ContributorsKantor, Daniel (Author) / Premji, Navid (Co-author) / Broman, Tannah (Thesis director) / Stecher, Chad (Thesis director) / Gruber, Diane (Committee member) / Barrett, The Honors College (Contributor) / The Sidney Poitier New American Film School (Contributor) / College of Health Solutions (Contributor)
Created2023-05