The overarching trend right now in bioprocessing and pharmaceuticals is essentially the shift from small molecules and biologics to
now cell and gene therapies.
Not exact matches
People of every nation, color, language, belief,
and condition are
now known to possess in their body
cells trait factors drawn by an inconceivably complex sequence of intercombinations from a common «
gene pool.»
Now, Zhang
and colleagues have discovered a new way that
cells can silence some imprinted
genes: by adding methyl groups to histones.
Now David He at Creighton University in Omaha, Nebraska,
and colleagues have shown that the same
gene can repair guinea pigs» existing, damaged hair
cells — as long as you get to them in time.
Lewis is
now skimming through these
genes to check their function; of those he's looked at so far, several are involved in growth
and development,
cell differentiation,
cell death,
and protecting against cancer.
Base oxidation regulates
gene activity In cooperation with colleagues at LMU, as well as researchers based in Berlin, Basel
and Utrecht, Carell
and his group have
now shown, for the first time, that a standard base other than cytosine is also modified in embryonic stem
cells of mice.
The protein is
now known to interact with
and control dozens of different
genes and proteins,
and it helps regulate the cycle of molecular events by which
cells grow
and reproduce.
Now, by harnessing advances in genome editing to slice
and dice
genes in donor T
cells, researchers have created a new type of cancer immunotherapy.
We have the
gene and stem -
cell therapies to do it
now — if only we dare use them on unborn babies
«I can
now take virtually any organism
and manipulate the genome
and create model systems where I can track
cells, manipulate
genes,» says Gitlin.
The breakthrough has resulted from the merger of interlocking fields —
gene therapy
and cell therapy — which are
now spawning near - miraculous treatments
and cures.
«It was kind of fun being at a medical school
and known as the weird guy who worked with dogs,» says Modiano, who is
now a professor of comparative oncology at the University of Minnesota College of Veterinary Medicine
and the Masonic Cancer Center, where his research focuses on immunology, cancer
cell biology, cancer genetics,
and applications of
gene therapy.
«For a long time
now, the entire field was collecting data on MYC, LIN41,
and other
genes and proteins without knowing what most of it meant,» said Yamanaka, who is also director of the Center for iPS
Cell Research
and Application (CiRA) at Kyoto University,
and professor at UC San Francisco.
Now, for the first time, scientists from Harvard Medical School have managed to «listen in» on the crosstalk between individual microbes
and the entire cast of immune
cells and genes expressed in the gut.
In unpublished research, Cagan (
now at the Wellcome Trust Sanger Institute in Hinxton, England) found that
genes involved in helping neural crest
cells migrate differed between the tame
and wild animals (SN: 6/13/15, p. 11).
Researchers indeed
now know fine details about the
genes, receptors,
and cell - to -
cell communications that drive these processes.
The full readout of what
genes are on
and off in dermal papilla
cells has never been collected before, so researchers
now have a new list of thousands of
genes to study further that may play key roles in hair follicle development.
By developing a new technique for labeling the
gene segments of influenza viruses, researchers
now know more about how influenza viruses enter the
cell and establish
cell co-infections — a major contributing factor to potential pandemic development.
Now — in a paper published online April 17, 2018 in
Cell Reports — Bandyopadhyay's lab has systematically mapped connections between 625 breast
and ovarian cancer
genes and nearly every FDA approved chemotherapy for breast or ovarian cancer.
They also re-engineered their previous
gene editing apparatus to
now carry a set of four guide RNAs, all designed to efficiently excise integrated HIV - 1 DNA from the host
cell genome
and avoid potential HIV - 1 mutational escape.
Now stem
cells are being combined with
gene and immune therapies, compounding the pace of progress.
As a result, the H19
gene, which restricts growth, was no longer active while the Igf2
gene, which promotes
cell division, was
now expressed from both the paternal
and the maternal allele.
Now Yamanaka
and his colleagues report in the journal
Cell that the same combination of
genes induced pluripotency in commercially available human fibroblasts (connective tissue
cells that play a crucial role in healing) derived from the facial skin of a 36 - year - old woman, the joint tissue of a man, aged 69,
and a newborn, respectively.
Researchers are
now finding hints that
cells» efforts to keep nuclear
and mitochondrial
genes in sync could play a major role in evolution.
With
gene - editing tools such as CRISPR, scientists can
now eliminate immune - provoking sugars from the surface of pig
cells, introduce human
genes that regulate blood coagulation to prevent dangerous clots,
and snip out viral sequences that some fear could infect a human host.
Lynch
and his colleagues are
now identifying candidates for other mammoth
genes to functionally test as well as planning experiments to study mammoth proteins in elephant
cells.
Now that the sequence of the PfEMP1
genes and proteins is known, it may be possible to screen for drugs to block the production of the proteins,
and so prevent infected
cells sticking to capillaries.
It
now appears that the clocks
and clock - related
genes — some 20 such
genes have been identified — affect virtually all of the
cells» metabolic pathways, from blood sugar regulation to cholesterol production.
«The beauty of this study is that we
now have a system in which we can investigate how a signaling
cell uses these two
genes Yorkie
and Scalloped, which have never before been shown in blood, to direct specific
cells to be made,» said Dr. Martinez - Agosto, associate professor of human genetics.
So Hoffman is
now looking for leads among
genes controlling the production of molecules called growth factors, which regulate
cell growth
and division.
That DNA includes slightly less than 21,000 protein - coding
genes (some researchers once estimated we had more than 100,000 such
genes); «
genes» for 8800 small RNA molecules
and 9600 long noncoding RNA molecules, each of which is at least 200 bases long;
and 11,224 stretches of DNA that are classified as pseudogenes, «dead»
genes now known to really be active in some
cell types or individuals.
However, Eggan
and McCarroll emphasized that
now that this phenomenon has been found, inexpensive
gene - sequencing tests will allow researchers to identify
and remove from the production line
cell cultures with concerning mutations that might prove dangerous after transplantation.
UT Southwestern researchers will
now try to find out if the KROX20 in
cells and the SCF
gene stop working properly as people age, leading to the graying
and hair thinning seen in older people — as well as in male pattern baldness, Dr. Le said.
«By looking comprehensively at
gene expression within
cells, we can
now spot numerous important differences in complex tissues like the brain that are invisible today,» said George Church, Ph.D., a Core Faculty member at the Wyss Institute
and Professor of Genetics at Harvard Medical School.
«Because the primary Small Intestine Chip recapitulates the physical microenvironment that
cells experience inside the human body, such as fluid flow
and cyclic peristalsis - like stretching motions, it exhibits a genome - wide
gene expression profile that comes closer to its in vivo counterpart than that of the same intestinal
cells grown as 3D organoids,» said first - author Magdalena Kasendra, Ph.D., a former Postdoctoral Fellow on Ingber's team
and now Principal Scientist at Emulate, Inc. in Boston.
«Using the genome data analysis methods developed by co-author Steve Horvath at UCLA, we have uncovered crucial
gene networks
and we can
now predict possible future genetic disorders at the eight -
cell stage.»
CNIO researchers have
now discovered how the MCRS1 protein — a protein associated with
gene regulation
and cell death processes — is capable of activating mTOR,
and thus, stimulate
cell proliferation.
It's
now possible to not only model disease using the
cells, but also to compare iPSCs from humans to those of our closest living relatives --- great apes, with which we share a majority of
genes --- for insight into what molecular
and cellular features make us human.
Melton
and colleagues are
now doing large scale screening with microarrays to track
gene activity as
cells develop
and discover
gene products that move
cells along the proper paths.
Now, two groups say they've developed a strategy that accomplishes two goals: it dispenses with the viral vector,
and it rids a
cell completely of the introduced
genes after they have done their job.
CRISPR
gene editing can
now target RNA as well as DNA, which could be a way to treat infectious diseases
and cancer
and track RNA as it moves around
cells
The protein has
now been made artificially by isolating the normal
gene and then inserting it into cultured
cells
There is a caveat, however: The enzyme Hunter patients
now receive does not cross the blood - brain barrier, the tight network of
cells that protects the brain from pathogens,
and the livermade enzyme produced by the
gene edit may not either.
Until
now the basic approach has been to isolate
genes for particular rotavirus proteins, clone them
and insert them into animal
cells.
We have
now developed a method that tells us if there is a relationship between
genes expressed in
cells,
and where those
cells are located.
Next steps include He's collaboration with Piedmont Atlanta Hospital to retrieve T
cells, liver cancer
cells and healthy tissue normally removed from patients during surgery, put the mouse receptor
genes on these T
cells and monitor in a dish both how those
cells now fight the tumor
and react to healthy human tissue.
Now in experiments in mice reported this week in
Cell Metabolism, researchers at Joslin Diabetes Centers have highlighted the ways in which the host's
genes interact with the microbial
genes to create such conditions, says senior author C. Ronald Kahn, M.D., Chief Academic Officer at Joslin Diabetes Center
and Mary K. Iacocca Professor of Medicine at Harvard Medical School.
«
Now, with the help of
gene therapy
and stem
cells we can help reactivate the body's response to hypoxia
and save limbs.»
«We have identified the
genes and growth factors involved
and, thanks to a collaboration with Microsoft Research, we can
now computationally model the control circuitry in mouse
cells.
PPARγ was initially linked to adipocyte (fat
cell) differentiation, but we
now know that it also regulates
genes responsible for lipid uptake, accumulation,
and storage of lipids in those
cells.