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1 e fibrosis similar to that seen in the Bmal1 KO mouse.
2  underlies the hyperconnectivity in the Fmr1 KO mouse.
3  age-related pathologies in the Gsk3a global KO mouse.
4  underlie the behavioral deficit in the fmr1 KO mouse.
5 ed pathologies in the striated muscle of the KO mouse.
6  IFN-gamma production by T cells in the IL-2-KO mouse.
7 ects of innate immune challenge in the PC1/3 KO mouse.
8 subtypes retained homologous coupling in the KO mouse.
9 red in the embryonic heart of the global CAR-KO mouse.
10 on by generating and characterizing a PSD-95 KO mouse.
11 analysis or immunohistochemistry in the Rs1h-KO mouse.
12 stigate these roles by phenotyping of a Muc4 KO mouse.
13 k for neurobiological phenotypes in the Rgs2 KO mouse.
14 s synaptic correlates in the fmr1 knock-out (KO) mouse.
15 (FXS), the Fmr1 (tm1Cgr) or Fmr1 "knockout" (KO) mouse.
16 ient phenotype similar to the IRF8 knockout (KO) mouse.
17 e in the FXS mouse model-the Fmr1 knock-out (KO) mouse.
18 rmation parameters using the IGF-I knockout (KO) mouse.
19 y Kv3.2 or Kv3.4 in the respective knockout (KO) mouse.
20  transport of B12 in a TCblR/CD320-knockout (KO) mouse.
21                                     The Fmr1 KO mouse, a model of FXS, exhibits elevated translation
22                       In the Norrin KO (Ndp (KO) ) mouse, a model of familial exudative vitreoretinop
23 cific Na(+) /Ca(2+) exchange (NCX) knockout (KO) mouse, a model of cellular Ca(2+) overload.
24                      The Fmr1 knockout (Fmr1-KO) mouse, a mouse model for FXS, has been shown to repl
25  The multidrug resistance 2 (Mdr2)-knockout (KO) mouse (adenosine triphosphate-binding cassette b4(-/
26                                   This COX10 KO mouse allowed us to correlate the muscle function wit
27   Moreover, given that this conditional Fktn-KO mouse allows the generation of tissue- and timing-spe
28 f Kiss1r in GFAP-positive cells in the G-KiR-KO mouse altered gene expression of key factors in PGE2
29    Previous studies using the Fmr1 knockout (KO) mouse, an FXS mouse model, have attributed behaviora
30  ameliorates ER stress and fibrosis in Grp78 KO mouse and IPF lung slice cultures.Conclusions: These
31 ed this conundrum using a Ca(v)1.4 knockout (KO) mouse and a knock-in (G369i KI) mouse expressing a n
32 opoietic lineage commitment using knock out (KO) mouse and cell line models.
33 ss this issue, we used the miR-155 knockout (KO) mouse and diffuse large B-cell lymphoma (DLBCL) cell
34 stemically inactivated in adult mouse (alpha-KO mouse), and the role of PDGFRalpha was examined in th
35 m potentiation (LTP) is impaired in the fmr1 KO mouse, and motor skill training does not occlude LTP
36  increased in these regions in WT but not in KO mouse aorta in response to Ang II.
37 eostasis and establish the liver-specific GS KO mouse as a model with which to study effects of chron
38                                  We used DAT-KO mouse as model for DTDS to explore the potential util
39                          The ERG of the Rs1h-KO mouse at early ages reflects disruption of photorecep
40                         Furthermore, PancMet KO mouse beta-cells were more sensitive to dexamethasone
41 inhibitory neurotransmission deficits in the KO mouse BLA.
42                         We transplanted SMS2 KO mouse bone marrow into low-density lipoprotein (LDL)
43 dependent increase in LPC levels in the PPT1-KO mouse brain positively correlates with elevated expre
44 e phagocytic cells are recruited in the PPT1-KO mouse brain remains poorly understood.
45 nduced by ROS, in human INCL as well as PPT1-KO mouse brain tissues are markedly elevated.
46 sion of GluA2 and GluA3 is increased in STEP-KO mouse brain, and STEP knockdown in hippocampal slices
47 lic phospholipase A(2) (cPLA(2)) in the PPT1-KO mouse brain, is a 'lipid signal' for phagocyte recrui
48 xpression remained unaltered in adult WT and KO mouse brain, SC, and kidneys.
49 -KO mice, as well as in transgenic alpha-Syn-KO mouse brains in vivo.
50 ptide precursor VGF was also affected in PC1 KO mouse brains with a decrease in the level of an endog
51 cessing of proenkephalin was impaired in PC1 KO mouse brains with a decrease in the level of Met-Enke
52 des in the lipid-associated fraction of HEXB KO mouse brains, and intraneuronal accumulation of gangl
53 g of proSAAS into PEN was not altered in PC1 KO mouse brains.
54 is study, we generated a TSHR knockout (TSHR-KO) mouse by homologous recombination for use as a model
55               We generated a Chga knock-out (KO) mouse by the targeted deletion of the Chga gene in n
56                           The PEDF-knockout (KO) mouse captures crucial elements of the human disease
57 rom ALR (flox/flox)/Alb-Cre [ALR-L-knockout (KO)] mouse causes robust steatosis and apoptosis of hepa
58 ogenesis machinery, in mitochondria from TAZ-KO mouse cells and in CL-deleted yeast crd1Delta cells,
59           Our technique revealed that Top1mt KO mouse cells process the mitochondrial transcripts nor
60 ponse was more pronounced in Neil2 knockout (KO) mouse cells than in WT cells, suggesting that NEIL2
61                                  In the Fmr1 KO mouse, chronic treatment with mGluR5-negative alloste
62 P1 with occludin and E-cadherin genes in DRA-KO mouse colon, suggesting that posttranscriptional mech
63 AO A/B double knock-out (KO) mice in a MAO B KO mouse colony.
64 tic transmission in a TARP gamma-4 knockout (KO) mouse corroborates our expression data and demonstra
65 vers, or spleens of MyD88 KO mice, the first KO mouse described with this phenotype to our knowledge.
66          The connexin43 knockout (Cx43alpha1 KO) mouse dies at birth from outflow obstruction associa
67                                     The Fmr1 KO mouse displays phenotypes similar to symptoms in the
68          Compared to wild type mice, the LIF KO mouse displays reduced astrocyte and microglial activ
69 ablation of the cav1 gene (ad-cav1 knockout [KO] mouse) does not result in elimination of the protein
70 r glutamatergic neurons-in an otherwise Fmr1 KO mouse-eliminates AGSs.
71                 Consistent with this, FIP200 KO mouse embryo fibroblasts and liver cells showed incre
72                            Reconstitution of KO mouse embryo fibroblasts showed that both the pleckst
73 cadian rhythm in a Cry1(-/-)Cry2(-/-) double KO mouse embryonic fibroblast cell line.
74  Using SV40- and K-Ras-transformed caspase-2 KO mouse embryonic fibroblast cells reconstituted with e
75       In response to adipogenic stimuli, PP5-KO mouse embryonic fibroblast cells showed almost no lip
76 d insulin signaling were restored in ATG16L1 KO mouse embryonic fibroblasts (MEF) upon proteasome inh
77 bryonic fibroblasts lacking Atg16l1 (ATG16L1 KO mouse embryonic fibroblasts (MEFs)), an essential aut
78 eased cell migration was observed from Arl15 KO mouse embryonic fibroblasts (MEFs).
79 r disease (FAD) PS1 mutants expressed in PS1-KO mouse embryonic fibroblasts inhibited both the EphB2-
80 in tRNA were significantly decreased in Tet2 KO mouse embryonic stem cells (mESCs) in comparison with
81 d MIP-1alpha was reduced in IL-18 knock-out (ko) mouse embryonic fibroblast (MEF)-like cells.
82                 Wild-type and PP5-deficient (KO) mouse embryonic fibroblast cells were used to show b
83  wild-type (WT) and Bcl-xL knock-out (Bcl-xL-KO) mouse embryonic fibroblast cells.
84  We show that lysates from Nedd4-1 knockout (KO) mouse embryonic fibroblasts (MEFs) have significantl
85 e (WT) and p21-activated kinase 1-null (PAK1-KO) mouse embryonic fibroblasts (MEFs), we found TF and
86 n in both wild-type (WT) and RSK2 knock-out (KO) mouse embryonic fibroblasts (MEFs).
87            We found that in PAI-1 knock-out (KO) mouse embryonic fibroblasts), alphavbeta3 endocytosi
88 ockdown or Parp1 heterozygosity of Brca2(cko/ko) mouse embryonic stem cells (mESCs), carrying a null
89             Analysis of miR-34/449 knockout (KO) mouse embryos demonstrates significant spindle misor
90       We postulated that inclusions in Myo5b KO mouse enterocytes form through invagination of the ap
91 f2 were significantly downregulated in Hdac3 KO mouse epicardial cells.
92                                       In Oga KO mouse ES cells, we observed pronounced changes in exp
93                                  Conditional KO mouse experiments indicate that the effect of KLF2 on
94                        A Cftr knockout (Cftr KO) mouse expressing mutants of human CFTR would advance
95                  The size and weight of IRBP KO mouse eyes were greater than those of the WT mouse, e
96            Micro-computed tomography of A(2A)KO mouse femurs showed a significantly decreased bone vo
97                         By using a knockout (KO) mouse for MKK3, a key regulator of the p38MAPK pathw
98 ted gene expression was dysregulated in TrkC-KO mouse glomeruli.
99                                    The IL-13 KO mouse had a separate phenotype to that of the IL-4 KO
100 ll homing to the gut and as a result the VDR KO mouse has reduced numbers of CD8alphaalpha IEL with l
101                           The Mtm1 knockout (KO) mouse has a severe phenotype and its short lifespan
102                   A fragile X knockout (fmr1 KO) mouse has been described that has some of the charac
103 eneration of the connexin-36 knock-out (Cx36 KO) mouse has offered a unique opportunity to examine th
104 odel of ApoE deficiency, the ApoE knock-out (KO) mouse, has reduced synapses and cognitive impairment
105                              Banded End.LepR-KO mouse hearts exhibited less apoptosis ( P=0.0218), in
106 pregulation of apoptosis were observed in CM-KO mouse hearts.
107 we have now employed a genetic HRI-knockout (KO) mouse hepatocyte model.
108 analysis revealed that the ischemic GFAP-ARO-KO mouse hippocampus failed to upregulate the "A2" panel
109 c cardiac contractile performance of the PLN-KO mouse in the long term.
110                        We generated an AKAP7 KO mouse in which all isoforms were deleted and tested w
111 tion in vivo, we generated a conditional RB1-KO mouse in which pRb expression is efficiently extingui
112 g a pan-brain-specific conditional knockout (KO) mouse incapable of FAO due to the loss of carnitine
113        Studies in the insulin receptor FOXO1 KO mouse indicate that insulin is a key signaling molecu
114 intestinal cell lines, human MVID, and Myo5b KO mouse intestine revealed changes in the subcellular r
115 w that the rate of cone cell loss in the GC1 KO mouse is comparable to that previously described in t
116                                     The Rs1h-KO mouse is consistent with human clinical X-linked juve
117  that the faster Vus of smooth muscle of the KO mouse is consistent with, but does not prove without
118 dy provides the first evidence that the Fmrl KO mouse is impaired in inhibitory control, attention, a
119                  The Ndufs4 knockout (Ndufs4 KO) mouse is a mitochondrial complex 1-deficient model t
120       The dopamine transporter knockout (DAT KO) mouse is a model of chronic hyperdopaminergia used t
121                          The Fmr1 knock-out (KO) mouse is a useful model for studying FXS.
122                            DAT-Knockout (DAT-KO) mouse is currently the best animal model for this sy
123                       While a CPEB knockout (KO) mouse is sterile but overtly normal, embryo fibrobla
124                                      PancMet KO mouse islets failed to upregulate GLUT2 and pancreati
125                Perifusion of neurexin-1alpha KO mouse islets revealed a significant increase in secon
126 ntly, glucose cycling was abolished in G6pc2 KO mouse islets, confirming that G6pc2 opposes the actio
127 od photoreceptor neuron-specific conditional KO mouse lacking MSI1 and MSI2.
128 oss of TFF1 expression in the TFF1-knockout (KO) mouse leads to a pro-inflammatory phenotype with a c
129 nd cardiac function in CaMKIIdelta knockout (KO) mouse left ventricle (LV).
130                               Using a GluN2D KO mouse line (GluN2D(-/-)), we assessed behavioral phen
131               Here we develop a novel Cnksr2 KO mouse line and show that male mice exhibit increased
132                                     The GAL3-KO mouse line exhibited normal breeding and physical dev
133 ariants found in the large patient cohort, a KO mouse line lacking Gpr37l1 was generated.
134            Thus, we use a conditional GluN2B KO mouse line to assess both basal and ethanol-dependent
135 lementary mouse models, an alpha4 knock-out (KO) mouse line and a knock-in line (Leu9'Ala) expressing
136                                   Both Kv1.6 KO mouse lines exhibited an unexpected reduction in sens
137         We then compared RasGRF1 and RasGRF2 KO mouse lines, demonstrating that cocaine SA in RasGRF2
138 used conditional and conventional knock-out (KO) mouse lines, with viral expression of Cre-recombinas
139 X in ZGA, we generated Dux cluster knockout (KO) mouse lines.
140 that compared with wild type littermates, UG-KO mouse lungs express markedly elevated levels of SCCA-
141 notably, the metastasized B16F10 cells in UG-KO mouse lungs express MMP-2, MMP-9, and MMP-14 as well
142                               Remarkably, UG-KO mouse lungs overexpress two calcium-binding proteins,
143 f neutrophil elastase and myeloperoxidase in KO mouse lungs.
144             The increased chemotaxis of Fpr2-KO mouse macrophages in response to LLC Sup was due to t
145 increase in TRPC1 protein abundance in I-mfa KO mouse mesangial cells.
146                                       The RS-KO mouse mimics structural features of human X-linked ju
147 vel skeletal muscle-specific GRK2 knock-out (KO) mouse (MLC-Cre:GRK2(fl/fl)) to gain a better underst
148 ole of Abi1, we generated a conditional Abi1-KO mouse model and MEFs lacking Abi1 expression.
149                    We propose that the MARC2 KO mouse model could be a powerful tool for predicting M
150 row-derived macrophages from an IRAK3 CRISPR KO mouse model demonstrated a proinflammatory phenotype
151   Here we present the first report of a Tcap KO mouse model for LGMD2G and the results of an investig
152  use of our Pdx1-Cre-driven conditional PAK4 KO mouse model for testing in vivo potential functions o
153  In this study, we characterized an existing KO mouse model lacking the functional MARC2 gene and fed
154         Obliteration of CHGA expression in a KO mouse model led to decreased size and number of chrom
155 nd more severe cardiac injury, making the MT-KO mouse model of alcohol-induced cardiac fibrosis a use
156                          Thus, in the Ndufs4 KO mouse model of mitochondrial optic neuropathy, papave
157       We are the first to establish a viable KO mouse model of Tcap deficiency and our model mice dem
158                          Using a conditional KO mouse model where Atg7, a critical gene for macroauto
159                     Importantly, in a Deptor-KO mouse model, Deptor knockout accelerated prostate tum
160                           Based on an LRRC52 KO mouse model, LRRC52 regulation of large conductance K
161                     When using an AMPK-beta1 KO mouse model, the protective effects of metformin stil
162                               Using the Aire KO mouse model, we demonstrated an essential role for CC
163                          By using an Hsd17b4 KO mouse model, we demonstrated that peroxisomes contrib
164 inflammatory lung microenvironment of Gprc5a-ko mouse model.
165 atory T(h)1 pathway is dominant in the PC1/3 KO mouse model.
166 g a Th17 response in the hyperlipidemic apoE KO mouse model.
167 ucose and insulin tolerance tests in a Ramp3 KO mouse model.
168 ons and in combination with the alpha1,3GalT-KO mouse model.
169 ne 2,3-dioxygenase, and was confirmed in IDO-KO mouse model.
170 s study were 1) to develop a novel knockout (KO) mouse model (Mct6(-/-)) using CRISPR/Cas9 technology
171 mparing tumor formation in an Mdr2-knockout (KO) mouse model (n = 15) and tumor growth in a remote BN
172 story of a retinoschisin gene knockout (Rs1h-KO) mouse model and evaluated the long-term effects of r
173 using the conditional nebulin knockout (cNeb KO) mouse model and subsequently performing global prote
174                                  A knockout (KO) mouse model exhibits behavioral and adult neurogenes
175                         The PC1/3 knock-out (KO) mouse model has allowed us to elucidate its physiolo
176 ow that IFITM3 deficiency in a new knockout (KO) mouse model increases weight loss and mortality foll
177 d connectivity maps of the Cntnap2 knockout (KO) mouse model of ASD.
178 to OCD, we used the Sapap3 knock-out (Sapap3-KO) mouse model of compulsive behaviors, which also exhi
179 dence for this problem in the Fmr1-knockout (KO) mouse model of Fragile X syndrome and describe poten
180 ala synaptic function in the Fmr1 knock-out (KO) mouse model of FXS, however, remain largely unexplor
181  hippocampal synapses in the Fmr1-knock-out (KO) mouse model of FXS.
182 ry bulb in the commonly-used Fmr1 knock-out (KO) mouse model of FXS.
183 s of gastric tissues from the TFF1 knockout (KO) mouse model of gastric neoplasia, demonstrated phosp
184 thyl-CpG-binding protein 2 (Mecp2) knockout (KO) mouse model of Rett syndrome, we show that naive exc
185                           An ssTnT-knockout (KO) mouse model recapitulates key features of ANM such a
186                          An LRRC26 knockout (KO) mouse model recently revealed that LRRC26 is also hi
187                                The knockout (KO) mouse model showed the absence of endosialin/TEM1 ex
188 erate a hepatocyte-specific CHIP knockout (H-KO) mouse model that develops NAFLD more rapidly in resp
189 romoter-driven aromatase knock-out (GFAP-ARO-KO) mouse model to deplete astrocyte-derived E2 in the b
190 ebrain neuron-specific aromatase KO (FBN-ARO-KO) mouse model to deplete neuron-derived E2 in the fore
191                          We used a knockout (KO) mouse model to determine CTRP2 function and found th
192 in Ras activation, using a RasGRP1 knockout (KO) mouse model to examine the response of keratinocytes
193          A conditional betaENaC MG knockout (KO) mouse model was generated to elucidate the pathogene
194           A sucrase-isomaltase knockout (Sis-KO) mouse model was used to further elucidate the findin
195 he underlying mechanism by using a knockout (KO) mouse model with a genetic ablation of Splunc1.
196 r 3 (IGSF3) by generating an Igsf3 knockout (KO) mouse model with CRISPR/Cas9-mediated genome enginee
197   Here we compare a liver-specific knockout (KO) mouse model with total KO mice.
198 f nNOS was provided by an nNOS knockout (NOS-KO) mouse model, B6-129S4-Nos1(tm1Plh)/J.
199       Here we report the first NIS knockout (KO) mouse model, obtained by targeting exons 6 and 7 of
200                  In a vimentin knockout (Vim KO) mouse model, we note that Vim KO mice challenged wit
201               Here, using an eIF2A-knockout (KO) mouse model, we present evidence implicating eIF2A i
202 loid cell-specific SIRT1 knockout (Mac-SIRT1 KO) mouse model, we show that ablation of SIRT1 in macro
203                    Using the Jak3 knock-out (KO) mouse model, we show that Jak3 is expressed in colon
204                            Using a knockout (KO) mouse model, we show that loss of FAM19A1 results in
205 rrier, we used a Grhl2 conditional knockout (KO) mouse model, which allows for epithelial tissue-spec
206  fiber bundles from a nebulin knock-out (NEB KO) mouse model.
207 characterization of the first Far1 knockout (KO) mouse model.
208 n using a tamoxifen-inducible Lkb1 knockout (KO) mouse model: Rosa26-Cre(ER): Lkb1(flox/flox) (abbrev
209  novel B6.Cg-Pla2g6(DeltaEx2-VB) (PLA2g6 ex2(KO)) mouse model.
210 ted global as well as cardiac-specific HSPB7 KO mouse models and found that loss of HSPB7 globally or
211 -containing BK channels remains rudimentary, KO mouse models may help define other organs in which LR
212 vention studies using DBA2/J and Nos3 (eNos) KO mouse models of diabetes, TEPP-46 treatment reversed
213        Here we used real-time 3D imaging and KO mouse models to clarify how particles (human red bloo
214 sis, as demonstrated using single and double KO mouse models.
215 types reported in pituitary-specific ERalpha KO mouse models.
216 ypes have not been delineated in conditional KO mouse models.
217     By comparing relevant previous knockout (KO) mouse models (3'RR KO and hs3b-4 KO) to a novel muta
218 f deleterious phenotypes in BACE1 Knock-out (KO) mouse models (germline and conditional) raised some
219                        Conditional knockout (KO) mouse models are invaluable for elucidating the phys
220                Herein, conditional knockout (KO) mouse models that ablate Intu specifically from kidn
221 aches of COX-2 transgenic (Tg) and knockout (KO) mouse models to evaluate the mechanism of COX-2 in F
222 1-, STIM2-, and double STIM1/STIM2-knockout (KO) mouse models, which reveal the essential role of STI
223 To date, four separate alsin knockout (Alsin(KO)) mouse models have been generated, and despite hopes
224 n quantifiable or qualitative changes in DAT KO mouse MSNs relative to wild-type (WT) littermates.
225 g corresponding double- and triple-knockout (KO) mouse mutants.
226 ineralization of vibrissae, whereas grafting KO mouse muzzle skin onto WT mice did not.
227 verity to that in WT mice, but the iPLA2beta-KO mouse myocardium contained more parasite pseudocysts.
228 bound stimulation of ICa in both WT and NOS3-KO mouse myocytes.
229 naline (Iso) was studied in both WT and NOS3-KO mouse myocytes.
230 in permeabilized phospholamban knockout (PLN-KO) mouse myocytes phosphorylates ryanodine receptors (R
231 tants of SynIII in primary SynIII knock-out (KO) mouse neurons at early stages of in vitro developmen
232                   We generated a conditional KO mouse of the Bit1 gene by using the Cre-LoxP recombin
233 sing a megakaryocyte-specific Mkl2 knockout (KO) mouse on the conventional Mkl1 KO background to prod
234 s a sarcomeric protein that when absent (NEB KO mouse) or present at low levels (nemaline myopathy (N
235 in A and B dramatically decreased in the PC1 KO mouse pituitaries, while the levels of peptides deriv
236  inhibitor indomethacin, we found that PTPN7 KO mouse platelets aggregated and secreted to the same e
237                                        PTPN7 KO mouse platelets exhibited increased platelet function
238 o1e constructs were delivered into the Myo1e-KO mouse podocyte-derived cells via adenoviral infection
239  stimulation was significantly higher in CSE-KO mouse preparations compared to the amplitude of S-IJP
240 inine (l-NNA, 200 mum) and in nNOS-knockout (KO) mouse preparations, PAG shifted the transwall gradie
241     We generated a germline CETN2 knock-out (KO) mouse presenting with syndromic ciliopathy including
242 ulation of Abcg2 in some tissues of the Mrp4 KO mouse prompted us to evaluate the possibility that Ab
243 s was tested in a prostate-specific PTEN-/- (KO) mouse prostatic adenocarcinoma model through DNA met
244 ing heart-brain stem preparation of the Cx36-KO mouse, respiratory-coupled sympathetic nerve discharg
245 enting normal Rs1h protein in the adult Rs1h-KO mouse restored the normal ERG configuration.
246 ious electrophysiological studies of the GC1 KO mouse retina, provide evidence that GC1-GCAP1 interac
247 n early age, the retinoschisin knockout (Rs1-KO) mouse retina has progressive photoreceptor degenerat
248 unaltered in the connexin36 (Cx36) knockout (KO) mouse retina, indicating that it is not dependent on
249 P levels and polymerized F-actin in the Rpgr(ko) mouse retina.
250                                   In the Rs1-KO mouse, retinal layer formation and synaptic protein e
251 tigated Sphingosine kinase 2 knockout (Sphk2 KO) mouse retinas, tested their sensitivity to light, an
252 ubtypes in wild-type (WT) and Cx36 knockout (KO) mouse retinas.
253        Initial studies of a Hyal2 knock-out (KO) mouse revealed a mild phenotype with high serum HA,
254 -C(-/-) sera; however, MBL-null or MASP-1/-3 KO mouse sera demonstrated significantly decreased S2238
255          Furthermore, neuropathology of jam2 KO mouse showed prominent vacuolation in the cerebral co
256 ubsequent studies in a prosaposin knock-out (KO) (-/-) mouse showed intact but slightly reduced heari
257 volunteers and examined the aged 11beta-HSD1 KO mouse skin phenotype.
258           A comparison of IL-17C+ and IL-17C+KO mouse skin transcriptomes with that of human psoriasi
259 f skin of patients with psoriasis and IL-17C+KO mouse skin, and confirmed an exacerbation of the infl
260     Histological staining of Panx1 knockout (KO) mouse skin revealed a reduction in epidermal and der
261             After dorsal column SCI, miR-155 KO mouse spinal cord has reduced neuroinflammation and i
262 VLP-immunized than in SHIV VLP-immunized CD4 KO mouse splenocytes.
263        The low homeostatic impact of Hcrt(ko/ko) mouse spontaneous waking correlates with decreased c
264 the decrease in AMPAR function in the PSD-95 KO mouse stems from an increase in the proportion of "si
265                          A genetic knockout (KO) mouse strain lacking K(Na) channels (KCNT1 and KCNT2
266 was crossed to a conditional Dicer knockout (KO) mouse strain to analyze the role of microRNAs (miRNA
267 tional B cell-specific Kidins220 knockout (B-KO) mouse strain, we show that Kidins220 couples the BCR
268 vestigated by newly created subcongenic znt7-KO mouse strains carrying different lengths of genomic s
269 had a separate phenotype to that of the IL-4 KO mouse, suggesting that both IL-4 and IL-13 play impor
270  after transverse aortic constriction (TAC), KO mouse survival was only 60% of WT, and surviving KO m
271 maffin cells isolated from a PICK1 knockout (KO) mouse the amount of exocytosis was reduced, while re
272   We generated two new strains from the Mdr2-KO mouse, the Mdr2:CCR5 and the Mdr2:CCR1 double knockou
273 eatine kinase conditional frataxin knockout (KO) mouse; this mouse develops a severe cardiac phenotyp
274 used a tamoxifen-inducible EphA4 conditional KO mouse to achieve strong reduction of EphA4 levels in
275 romoter-driven aromatase knock-out (GFAP-ARO-KO) mouse to deplete astrocyte-derived E2 and elucidate
276 ted a cardiomyocyte-specific Mgat1 knockout (KO) mouse to establish a model useful in exploring the r
277                   We used a 5-HTT knock-out (KO) mouse to examine the effects of genetically driven l
278 the present study, we used an NR2A knockout (KO) mouse to examine the role of this subunit in the exp
279 16 results in a primary excretion of acid in KO mouse urine, leading to mild metabolic alkalosis ("re
280 d a uterine-specific GR knockout (uterine GR KO) mouse using the PR(cre) mouse model.
281 ld type (WT) and phospholamban knockout (PLB-KO) mouse ventricular myocytes to test whether exogenous
282 expression was about the same in both WT and KO mouse visceral yolk sac, brain, and spinal column.
283     This reduction in amyloid plaques in the KO mouse was accompanied by a reduction in Abeta42 level
284                      Seizure activity in the KO mouse was only moderately diminished by intraperitone
285 ity in the high-fat diet-fed (HFD-fed) Gpr21 KO mouse was traced to a marked reduction in tissue infl
286 an estrogen receptor beta (ERbeta) knockout (KO) mouse was created by interrupting the gene at the DN
287 ecently, a transglutaminase 3 knockout (TGM3/KO) mouse was generated that showed impaired hair develo
288                             In the near term KO mouse, we also observed a profusion of large coronary
289                     Hence, by using the TSHR-KO mouse, we provided in vivo evidence, demonstrating th
290                   Using a conditional VGLUT3 KO mouse, we show that deletion of the transporter from
291                       Using a CD34 knockout (KO) mouse, we tested the hypothesis that CD34 may partic
292 onditioned by osteoblasts derived from IGF-I KO mouse were below those detectable by RIA.
293     Unexpectedly, the silent synapses in the KO mouse were located onto morphologically mature spines
294             APN wild type (WT) and knockout (KO) mouse were employed in the study.
295 ing the 2 exons deleted in the global Pam(KO/KO) mouse, were indistinguishable from wild-type mice.
296  X syndrome mouse model, the Fmr1 knock-out (KO) mouse, where pharmacological and genetic reduction o
297 blasts (MEFs) derived from Fam20a knock-out (KO) mouse, while it was detected in the media from WT ME
298    This feature rendered the IL-10 knockout (KO) mouse, whose infiltrating cells are incapable of IL-
299  Cells lacking Abi1 and the conditional Abi1-KO mouse will serve as critical models for defining Abi1
300 ons of the wild-type mouse, but not the Kal7(KO) mouse, with an Abl inhibitor caused an increase in l

 
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