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1  stem cells from 2 patients with MPS IH (MPS-iPS cells).
2 S) cells from three subjects with RDEB (RDEB iPS cells).
3 broblasts to induced pluripotent stem cells (iPS cells).
4  alterations that are repeatedly observed in iPS cells.
5 transition from these intermediate stages to iPS cells.
6  regulates reprogramming of fibroblasts into iPS cells.
7 ment and function of Treg cells derived from iPS cells.
8 roid cells differentiated from the corrected iPS cells.
9 ntrol expression of a wide range of genes in iPS cells.
10 ural differentiation of murine P19 and human iPS cells.
11 gram MECs and mouse embryonic fibroblasts to iPS cells.
12 on factors, are significantly less stable in iPS cells.
13 increased stability of many histone mRNAs in iPS cells.
14 ification of myogenic progenitors from human iPS cells.
15 ocyte generation from patient-specific human iPS cells.
16 (iPS) cells with similar properties as mouse iPS cells.
17 s similar to that observed in wild-type (WT) iPS cells.
18 , but also results better genetic quality in iPS cells.
19 roblasts and human amniotic fluid cells into iPS cells.
20 fficient in-frame targeting of MYF5 in human iPS cells.
21 1 improves the generation of mouse and human iPS cells.
22 tecture in neurons differentiated from FXTAS iPS cells.
23 200, that are absent in both fibroblasts and iPS cells.
24 pplication of reprogramming somatic cells to iPS cells.
25 genes, affects the cardiogenic competency of iPS cells.
26 richment is partially maintained in Lsh(-/-) iPS cells.
27 derived from human induced pluripotent stem (iPS) cells.
28  the generation of induced pluripotent stem (iPS) cells.
29  cells and human inducible pluripotent stem (iPS) cells.
30 somatic cells into induced pluripotent stem (iPS) cells.
31 f somatic cells to induced pluripotent stem (iPS) cells.
32 ntiation of ES and induced pluripotent stem (iPS) cells.
33 ) reprogramming to induced pluripotent stem (iPS) cells.
34 adily derived from induced pluripotent stem (iPS) cells.
35 ogrammed to become induced pluripotent stem (iPS) cells.
36  of fibroblasts to induced pluripotent stem (iPS) cells.
37 cient formation of induced pluripotent stem (iPS) cells.
38  pluripotency in partially reprogrammed (pre-iPS) cells.
39 e cells (hHFCs) to induced pluripotent stem (iPS) cells.
40 tine generation of induced pluripotent stem (iPS) cells.
41 somatic cells into induced pluripotent stem (iPS) cells.
42  muscle cells from induced pluripotent stem (iPS) cells.
43 enic competency of induced pluripotent stem (iPS) cells.
44  or copy number variation were identified in iPS cells after the two subsequent clonal events.
45                          Here we report that iPS cell and epithelial markers, such as SSEA1 and EpCAM
46    Here, we exploited mutation correction of iPS cells and conserved proteotoxic mechanisms from yeas
47 uced SSEA-1+ cells were purified from ES and iPS cells and could be directed to differentiate into ca
48 urces of genetic and phenotypic variation in iPS cells and establishes their suitability as models of
49  skeletal myogenic progenitors from human ES/iPS cells and highlights their potential for future ther
50 e by days 7-8 of EB development, both in our iPS cells and in R1 cells.
51 rm cell transformation and the generation of iPS cells and indicate that the Hippo pathway constitute
52 etically matched sets of human IVF ES cells, iPS cells and nuclear transfer ES cells (NT ES cells) de
53 tic and transcriptional similarity of ES and iPS cells and to predict the differentiation efficiency
54 es provide an efficient source of autologous iPS cells and, as feeder cells, can also maintain iPS an
55 mRNAs expressed in induced pluripotent stem (iPS) cells and the fully differentiated human foreskin f
56 al Treg cells from induced pluripotent stem (iPS) cells and to determine the potential role of such c
57      Undifferentiated PKD iPS cells, control iPS cells, and embryonic stem cells elaborated primary c
58 oward modeling hematological disorders using iPS cells, and illustrate the hurdles that must be overc
59 has been no report of endoderm-derived human iPS cells, and this has prevented comprehensive comparat
60 ly intermediate state and fully reprogrammed iPS cells, and thus represent some of the earliest known
61 fferentiated cells to form pluripotent stem (iPS) cells, and c-Met activation counteracted the effect
62 onic stem (ES) and induced pluripotent stem (iPS) cells, and we also provide evidence for its extensi
63                           Hepatocyte-derived iPS cells appear indistinguishable from hES cells with r
64                                     Although iPS cells appear molecularly and functionally similar to
65  demonstrate, for the first time, that human iPS cells are able to undergo hematopoiesis that contrib
66 re have been insufficient data to prove that iPS cells are functionally equivalent to human embryonic
67 r cells (NPCs) and neurons suggests that (i) iPS cells are not permissive to HCMV infection, i.e., th
68                                              iPS cells are similar to human embryonic stem (hES) cell
69 ineered from human induced pluripotent stem (iPS) cells are a powerful system for evaluating the path
70 d from ES cells or induced pluripotent stem (iPS) cells are an intriguing source for stem cell-based
71   Autologous induced pluripotent stem cells (iPS cells) are prone to epigenetic and transcriptional a
72  aims to critically discuss the potential of iPS cells as a new source of cell therapeutics.
73 se and human models and validates the use of iPS cells as a platform to study the underlying cellular
74  human models, thereby validating the use of iPS cells as a platform to study underlying cellular pat
75 candidates for influencing the generation of iPS cells as well as for providing new insights into the
76                               However, ADPKD iPS cells as well as somatic epithelial cells and hepato
77 cribe a strategy to genetically modify human iPS cells at 'safe harbor' sites in the genome, which fu
78 ional molecular studies, drug screening, and iPS cell-based platforms for disease modeling.
79                   Here, we report that these iPS cells can be differentiated in vivo into functional
80                                              iPS cells can be differentiated into progenitor T cells
81 ow that, despite some molecular differences, iPS cells can be efficiently differentiated into DE prec
82 papers in this issue, have demonstrated that iPS cells can differentiate into keratinocytes.
83 tablished that the differentiated progeny of iPS cells can effectively reverse failure of a vital org
84          This is done by making the EBs from iPS cells carrying a novel Oct4 reporter (Oct4-MerCreMer
85 ons in protein coding regions in the initial iPS cell clone.
86 globin transgene in beta-thalassemia-patient iPS cell clones meet our safe harbor criteria and permit
87 ng dynamics, but also increases the ratio of iPS cell colonies to total colonies by reducing the freq
88                         Undifferentiated PKD iPS cells, control iPS cells, and embryonic stem cells e
89 OBEC3B (also known as A3B) and PIWIL2 in NHP iPS cells correlated with increased L1 mobility and endo
90 required for stem cell renewal and that RDEB iPS cells could be differentiated into both hematopoieti
91  cells have raised uncertainty as to whether iPS cells could generate autologous endodermal lineages
92    We propose that induced pluripotent stem (iPS) cells could be a unique biological resource to dete
93 yonic stem (ES) or induced pluripotent stem (iPS) cells could overcome this hurdle.
94                        Experience with human iPS cell culture and sorting via FACS will be of benefit
95  provide evidence for its extension to human iPS cells cultured without feeder cells.
96 ithin mouse ES and induced pluripotent stem (iPS) cell cultures that expresses high levels of transcr
97                               The promise of iPS cell derivatives for therapeutic applications is enc
98                         Both NT ES cells and iPS cells derived from the same somatic cells contained
99 ractogenesis using induced pluripotent stem (iPS) cells derived from various cataract patients.
100 PS cell lines and, specifically, how similar iPS cell-derived cardiomyocytes (iPS-CMs) are to embryon
101  we demonstrate that mutant titin protein in iPS cell-derived cardiomyocytes results in sarcomere ins
102 another step closer to clinical use of ES or iPS cell-derived cardiovascular progenitors in cardiac r
103  suggesting that GATA1 suppression in ES and iPS cell-derived hematopoietic progenitors may enhance m
104                    Here, we examined whether iPS cell-derived hepatocytes have both the functional an
105 tent of neurite shortening and cell death in iPS cell-derived neurons in patients with HD.
106 m patients with HD and patients with HD with iPS cell-derived neurons reduced mitochondrial fragmenta
107                                      Whether iPS cell-derived neurons will always faithfully recapitu
108          Our study highlights the utility of iPS cell-derived NPCs to elucidate the role of astrocyte
109                        Here we present human iPS cell-derived organoids through sequential rounds of
110 iral expression of wild-type PINK1 in mutant iPS cell-derived PINK1 neurons.
111                                              iPS cell-derived T cells can offer the advantages of avo
112            Importantly, adoptive transfer of iPS cell-derived Treg cells expressing large amounts of
113 e editing in human induced pluripotent stem (iPS) cell-derived neural progenitor cells (NPCs) to repa
114 onal studies using induced pluripotent stem (iPS) cell-derived neuronal cells are needed to validate
115           Instead, induced pluripotent stem (iPS) cell-derived RPE from patients provides us with ear
116  causes synaptic vesicle release deficits in iPS-cell-derived forebrain neurons.
117                               TCR-transduced iPS cells developed in vivo responded in vitro to peptid
118 ed closely to those of IVF ES cells, whereas iPS cells differed and retained residual DNA methylation
119 report a novel in vivo system in which human iPS cells differentiate within teratomas to derive funct
120               Importantly, human WT and RDEB iPS cells differentiated in vivo into structures resembl
121 ession of CD3, TCR, CD4, CD25, and CTLA-4 on iPS cell-differentiated Treg cells, which are able to se
122 erapies; however, the majority of current ES/iPS cell differentiation protocols are limited by low yi
123               Furthermore, human ES cell and iPS cell differentiation to cerebral cortex recapitulate
124      Pulsed transgene overexpression, before iPS cell differentiation, hindered cardiogenic outcomes.
125                     Re-supplementing AOF2 in iPS cells disrupted such global demethylation and induce
126          Offload of transgenes in engineered iPS cells ensures integrity of cardiac developmental pro
127                                Intriguingly, iPS cells exhibited aberrant silencing of imprinted gene
128 d FPC at similar levels, and PKD and control iPS cells exhibited comparable rates of proliferation, a
129                          Gene-corrected RDEB iPS cells expressed Col7.
130                     This method does not use iPS cell factors and thus differs from cell activation a
131                The induced pluripotent stem (iPS) cell field holds promise for in vitro disease model
132  efficacy of differentially originated human iPS cells for cell therapy.
133 expression levels and support the use of PKD iPS cells for investigating disease pathophysiology.
134           Here, we examined the use of human iPS cells for modeling inherited metabolic disorders of
135 eutic or suicide genes into patient-specific iPS cells for use in cell therapy.
136  several orders of magnitude and facilitated iPS cell formation in as little as 4 days.
137  a well known reprogramming factor, promoted iPS cell formation.
138                            The NKX2-5-GFP(+) iPS cells formed cardiomyocytes by numerous induction pr
139                                  We isolated iPS cells free of transgene sequences from a patient wit
140                       Here, we derive ES and iPS cells from a transgenic Oct4 distal enhancer reporte
141 e generation and initial characterization of iPS cells from chimpanzees and bonobos as new tools to e
142                                   We derived iPS cells from human adult fibroblasts and induced neura
143 muscle insulin resistance by differentiating iPS cells from individuals with mutations in the insulin
144 on would limit derivation and maintenance of iPS cells from patients with DC.
145                            We differentiated iPS cells from patients with Parkinson's disease (PD) in
146  for the generation of modified mRNA-derived iPS cells from primary human fibroblasts, focusing on th
147                                   We created iPS cells from two children with hereditary PAP (hPAP) c
148 bility to generate induced pluripotent stem (iPS) cells from a patient's somatic cells has provided a
149 eadily detected in induced pluripotent stem (iPS) cells from both primate species.
150  Here we generated induced pluripotent stem (iPS) cells from four members of a family in which a fram
151 ficiently deriving induced pluripotent stem (iPS) cells from human and mouse amniocytes, and for main
152       We generated induced pluripotent stem (iPS) cells from individuals with PMDS and autism and use
153  the generation of induced pluripotent stem (iPS) cells from skin fibroblasts taken from three PD pat
154  The generation of induced pluripotent stem (iPS) cells from somatic cells by the ectopic expression
155 sfer, we generated induced pluripotent stem (iPS) cells from three subjects with RDEB (RDEB iPS cells
156                               Transgene-free iPS cells generated reproducible beating activity with r
157 ing from random genomic integration, we used iPS cells generated without viruses.
158 on blastocysts and induced pluripotent stem (iPS) cells generated from somatic cell sources are pluri
159               We recently reported efficient iPS cell generation from human fibroblasts using synthet
160 ological mechanisms essential for successful iPS cell generation requires both accurate capture of ce
161 nificantly increases the efficiency of mouse iPS cell generation using the transcription factors Oct4
162 hanism may shed light on the improvements of iPS cell generation.
163 te as a chemical factor capable of promoting iPS cell generation.
164 s are capable of enhancing the efficiency of iPS cell generation.
165  the efficiency of induced pluripotent stem (iPS) cell generation.
166           In this study, we generated murine iPS cells genetically modified with ovalbumin (OVA)-spec
167                         Both hPAP and normal iPS cells had human embryonic stem cell-like morphology,
168                    Induced pluripotent stem (iPS) cells harbour a reparative potential, and were here
169 rammed to become inducible pluripotent stem (iPS) cells has created enthusiasm for their potential ap
170 ram adult cells to induced pluripotent stem (iPS) cells has now enabled the possibility of patient-sp
171 lizing human induced pluripotent stem cells (iPS cells) has enormous potential to provide improved ce
172                                        Human iPS cells have been derived mostly from cells originatin
173                             Patient-specific iPS cells have been derived not only for disease modelin
174                                              iPS cells have been found to contain a large number of d
175 ng lung epithelial cells derived from ES and iPS cells have lagged behind similar efforts devoted to
176                           Importantly, these iPS cells have only a single integration site in each ce
177              Human induced pluripotent stem (iPS) cells have great potential in regenerative medicine
178                      Given that both hES and iPS cells highly express mir-302, our findings suggest a
179                            We employed human iPS cell (hiPSC) technology to generate RPE from BD pati
180                                        Human iPS cells hold great promise for disease modeling and tr
181              Human induced pluripotent stem (iPS) cells hold great promise for advancements in develo
182                    Induced pluripotent stem (iPS) cells hold the potential to revolutionize regenerat
183  The generation of induced pluripotent stem (iPS) cells holds great promise in regenerative medicine.
184 reased L1 mobility in NHPs is not limited to iPS cells in culture and may have also occurred in the g
185 n the genetic programs of DE derived from ES/iPS cells in vitro and authentic DE from mouse embryos i
186 he neuronal lineage pathway compared with WT iPS cells in vitro and in vivo.
187                           We generated mouse iPS cells in which expression of NKX2-5, an early cardia
188 yonic stem (ES) or induced pluripotent stem (iPS) cells in translational research.
189 hromosomal aberrations, compared to those in iPS cells induced only with 4 Yamanaka factors.
190             As the mechanism of conventional iPS cell induction methods remains largely unknown, unde
191 ent some of the earliest known regulators of iPS cell induction.
192                         We hypothesized that iPS cells, injected into NOD.Cg-Prkdc(scid) Il2rg(tm1Wjl
193                             Focal benefit of iPS cell intervention translated into improved left vent
194 emoval enabled proficient differentiation of iPS cells into functional cardiac tissue.
195 ating embryonic or induced pluripotent stem (iPS) cells into beta-like-cells through endodermal proge
196                                  Analysis of iPS cells, iPS-derived neural stem cells (NSCs), neural
197                        A cardinal feature of iPS cells is acquisition of indefinite self-renewal capa
198   Thus, to maintain the genetic stability of iPS cells is an important goal in iPS cell technology.
199 onal load acquired during gene correction of iPS cells is compatible with use in the treatment of gen
200  The generation of induced pluripotent stem (iPS) cells is an important tool for regenerative medicin
201 Lsh(-/-) MEFs into induced pluripotent stem (iPS) cells leads to increased neuronal lineage gene expr
202 formed to assess the genomic integrity of an iPS cell line after three sequential clonal events: init
203  aimed to generate a knock-in reporter human iPS cell line for MYF5, as an early myogenic specificati
204 een differentiated lineages from independent iPS cell lines and how similar iPS-CMs are to ES-CMs.
205 een differentiated lineages from independent iPS cell lines and, specifically, how similar iPS cell-d
206 eneration, genotyping and phenotyping of 711 iPS cell lines derived from 301 healthy individuals by t
207 es for generation of knock-in reporter human iPS cell lines for myogenic genes which can be used for
208 re importantly, the gene-corrected beta-Thal iPS cell lines from each patient can be induced to diffe
209 dentified possible loss of heterozygosity in iPS cell lines from one patient.
210  retention of PKD1 heterozygous mutations in iPS cell lines from two patients but identified possible
211 phenotypic characterization of many existing iPS cell lines limits their potential use for research a
212 egation of heteroplasmic mtDNA in individual iPS cell lines or mitochondrial replacement by SCNT in h
213 s and we further produced different isogenic iPS cell lines via gene editing.
214            Isogenic MELAS and Leigh syndrome iPS cell lines were generated containing exclusively wil
215         Here we have generated several human iPS cell lines, and we describe their pluripotent phenot
216 eviously derived human ES lines and 12 human iPS cell lines, and we have measured the in vitro differ
217 technology to develop endoderm-derived human iPS cell lines, together with other established cell lin
218 generate a library of patient-specific human iPS cell lines.
219 ed several mouse ES and induced pluripotent (iPS) cell lines expressing fluorescent proteins under re
220 ls, we established induced pluripotent stem (iPS) cell lines from fibroblasts of three ADPKD and two
221 mans, we generated induced pluripotent stem (iPS) cell lines from patients with Costello syndrome (CS
222           Multiple induced pluripotent stem (iPS) cell lines were derived from patients with common h
223  cell lines and 11 induced pluripotent stem (iPS) cell lines, from 38 laboratories worldwide, for gen
224                                        Thus, iPS cells may provide a novel approach to applying regen
225  tissue from patients into pluripotent stem (iPS) cells may now provide a general solution to this sh
226              Human induced pluripotent stem (iPS) cells now provide an opportunity for such research.
227 ative investigations of the quality of human iPS cells of different origins.
228 ities of primary neurons differentiated from iPS cells of human HD patients.
229           We generated cortical neurons from iPS cells of patients harboring alphasyn mutations, who
230 d patient-specific induced pluripotent stem (iPS) cells offer a unique approach to gene therapy.
231                    Induced pluripotent stem (iPS) cells offer a unique potential for understanding th
232 nd for maintaining the pluripotency of these iPS cells on mitotically inactivated feeder layers prepa
233 s is true both of EBs made from the reporter iPS cells, or from an embryo-derived mouse ES line (R1 c
234 ind that 5-46% of the variation in different iPS cell phenotypes, including differentiation capacity
235       The whole protocol, encompassing human iPS cell preparation, autonomous differentiation, purifi
236  The generation of induced pluripotent stem (iPS) cells presents a challenge to normal developmental
237                    Induced pluripotent stem (iPS) cells' promise may soon be realized in the field of
238 se donor cell identity and gradually acquire iPS cell properties.
239 onic stem (ES) and induced pluripotent stem (iPS) cells represent a potential source of megakaryocyte
240              Induced pluripotent stem cells (iPS cells) represent a unique tool for the study of the
241                    Induced pluripotent stem (iPS) cells reprogrammed from somatic cells have the pote
242 hat Tet2 provides a mechanistic link between iPS cell reprogramming and B-cell transdifferentiation.
243 KM activation induces a 100-fold increase in iPS cell reprogramming efficiency, involving 95% of the
244 he context of most induced pluripotent stem (iPS) cell reprogramming methods, heterogeneous populatio
245 n vivo, we applied induced pluripotent stem (iPS) cell reprogramming of aged hematopoietic progenitor
246 nd participates in induced pluripotent stem (iPS) cell reprogramming.
247 is elevated during induced pluripotent stem (iPS) cell reprogramming.
248 Recent advances in induced pluripotent stem (iPS) cell research have significantly changed our perspe
249 that 2i/LIF treatment in clonal lines of pre-iPS cells results in the activation of endogenous Nanog
250 ve gene expression analysis of human and NHP iPS cells revealed differences in the regulation of long
251 n this protocol is followed, a proportion of iPS cells spontaneously form circular colonies, each of
252 ed genes are functionally associated with ES/iPS cell status while p53-activated genes are linked to
253 the manipulation of A3B and PIWIL2 levels in iPS cells supported a causal inverse relationship betwee
254 his Review, we describe the current state of iPS cell technology, including approaches by which they
255 ability of iPS cells is an important goal in iPS cell technology.
256                    Induced pluripotent stem (iPS) cell technology holds vast promises for a cure to t
257 s play even wider roles in the generation of iPS cells than currently appreciated.
258 onic stem (ES) and induced pluripotent stem (iPS) cells that uses defined serum-free culture conditio
259 isease to generate induced pluripotent stem (iPS) cells that were differentiated to cardiomyocytes (i
260 sion in the undifferentiated state of ES and iPS cells, the variance narrows significantly in lineage
261                  These findings confirm that iPS cells themselves may carry a significant mutational
262 ate the hurdles that must be overcome before iPS cell therapies will be available in clinics.
263                                        Local iPS cell therapy, but not delivery of parental fibroblas
264 ent state known as induced pluripotent stem (iPS) cells through overexpression of 4 transcription fac
265                     We used patient-specific iPS cells to accurately reproduce the molecular and cell
266              To facilitate the transition of iPS cells to clinical practice, a variety of technologie
267 nd and transduction of the gene Foxp3 induce iPS cells to differentiate into Treg cells.
268 ncy were examined, along with the ability of iPS cells to differentiate, in vitro and in vivo, into d
269   These data underscore the potential of MPS-iPS cells to generate autologous hematopoietic grafts de
270 itors and allowed the resulting aged-derived iPS cells to reform hematopoiesis via blastocyst complem
271 d conditional expression of PAX7 in human ES/iPS cells to successfully derive large quantities of myo
272 onic stem (ES) and induced pluripotent stem (iPS) cells to cortical stem and progenitor cells, follow
273 onic stem (ES) and induced pluripotent stem (iPS) cells to identify Sox17 as a regulator of hemogenic
274  be generated from induced pluripotent stem (iPS) cells to provide an unlimited source of functional
275 g monocyte-derived induced pluripotent stem (iPS) cells to recapitulate disease-specific and normal m
276 hanced differentiation potential of Lsh(-/-) iPS cells toward the neuronal lineage pathway compared w
277 mouse models of type 1 and 2 diabetes via an iPS cell transplant.
278 gh temporal and spatial resolution, regional iPS cell transplantation restored, within 10 days post-i
279  Thus, in ischaemic cardiomyopathy, targeted iPS cell transplantation synchronized failing ventricles
280 rtantly, adoptive transfer of TCR-transduced iPS cells triggered infiltration of OVA-reactive CTLs in
281 er into recipient mice, the majority of OT-I/iPS cells underwent differentiation into CD8+ CTLs.
282                                Generation of iPS cells using retroviral vectors from short- or long-t
283 emia major hydrops fetalis in transgene-free iPS cells using zinc finger-mediated insertion of a glob
284 ial stem cells from human ES cells and human iPS cells was dependent on retinoid signaling.
285 RDEB fibroblasts and keratinocytes into RDEB iPS cells was similar to that observed in wild-type (WT)
286       Using gut organoids derived from human iPS cells, we show that FOXO1 inhibition using a dominan
287 n model, within 30 min of coronary ligation, iPS cells were delivered to mapped infarcted areas.
288 ble expression in the fibroblasts from which iPS cells were derived.
289      More significantly, however, when these iPS cells were differentiated under conditions that prom
290                 In vivo analyses showed that iPS cells were intrinsically able to differentiate into
291 ic stem (hES), and induced pluripotent stem (iPS) cells, were differentiated in vitro as a model to r
292 reprogramming into induced pluripotent stem (iPS) cells when co-expressed with the transcription fact
293 potential of human induced pluripotent stem (iPS) cells will require robust, precise and safe strateg
294 ally inherited Leigh syndrome (MILS) patient iPS cells with ATP synthase deficiency.
295 hocytes, generated induced pluripotent stem (iPS) cells with differentiation representing all 3 germ
296 es including human induced pluripotent stem (iPS) cells with improved efficiency.
297 erivation of human induced pluripotent stem (iPS) cells with similar properties as mouse iPS cells.
298 be reprogrammed to induced pluripotent stem (iPS) cells with substantially higher efficiencies than t
299 ighly expressed in induced pluripotent stem (iPS) cells, with no detectable expression in the fibrobl
300 nhances the generation of fully reprogrammed iPS cells without accelerating cell proliferation.

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