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PMID |
Sentence |
1 |
15466384
|
In contrast, CDK5 was markedly decreased in the proliferating and dedifferentiated podocytes of mice with anti-glomerular basement membrane nephritis and in human immunodeficiency virus transgenic mice. p35, the activator of CDK5, was also detected in podocytes and the p35/CDK5 complex was active.
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2 |
15466384
|
Cell fractionation studies showed that active p35/CDK5 was mainly localized to the plasma membrane.
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3 |
15466384
|
In contrast, CDK5 was markedly decreased in the proliferating and dedifferentiated podocytes of mice with anti-glomerular basement membrane nephritis and in human immunodeficiency virus transgenic mice. p35, the activator of CDK5, was also detected in podocytes and the p35/CDK5 complex was active.
|
4 |
15466384
|
Cell fractionation studies showed that active p35/CDK5 was mainly localized to the plasma membrane.
|
5 |
20130526
|
p35, the non-cyclin activator of Cdk5, protects podocytes against apoptosis in vitro and in vivo.
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6 |
20130526
|
Cyclin-dependent kinase-5 is widely expressed and predominantly regulated by the non-cyclin activator p35.
|
7 |
20130526
|
Levels of Bcl-2 were decreased in these null podocytes but increased after transduction with human p35.
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8 |
20130526
|
Restoration of p35 or the ectopic expression of Bcl-2 reduced the susceptibility of p35-null podocytes to apoptosis.
|
9 |
20130526
|
Our study shows that p35 does not affect glomerulogenesis but controls podocyte survival following injury, in part, by regulating Bcl-2 expression.
|
10 |
20130526
|
p35, the non-cyclin activator of Cdk5, protects podocytes against apoptosis in vitro and in vivo.
|
11 |
20130526
|
Cyclin-dependent kinase-5 is widely expressed and predominantly regulated by the non-cyclin activator p35.
|
12 |
20130526
|
Levels of Bcl-2 were decreased in these null podocytes but increased after transduction with human p35.
|
13 |
20130526
|
Restoration of p35 or the ectopic expression of Bcl-2 reduced the susceptibility of p35-null podocytes to apoptosis.
|
14 |
20130526
|
Our study shows that p35 does not affect glomerulogenesis but controls podocyte survival following injury, in part, by regulating Bcl-2 expression.
|
15 |
20130526
|
p35, the non-cyclin activator of Cdk5, protects podocytes against apoptosis in vitro and in vivo.
|
16 |
20130526
|
Cyclin-dependent kinase-5 is widely expressed and predominantly regulated by the non-cyclin activator p35.
|
17 |
20130526
|
Levels of Bcl-2 were decreased in these null podocytes but increased after transduction with human p35.
|
18 |
20130526
|
Restoration of p35 or the ectopic expression of Bcl-2 reduced the susceptibility of p35-null podocytes to apoptosis.
|
19 |
20130526
|
Our study shows that p35 does not affect glomerulogenesis but controls podocyte survival following injury, in part, by regulating Bcl-2 expression.
|
20 |
20130526
|
p35, the non-cyclin activator of Cdk5, protects podocytes against apoptosis in vitro and in vivo.
|
21 |
20130526
|
Cyclin-dependent kinase-5 is widely expressed and predominantly regulated by the non-cyclin activator p35.
|
22 |
20130526
|
Levels of Bcl-2 were decreased in these null podocytes but increased after transduction with human p35.
|
23 |
20130526
|
Restoration of p35 or the ectopic expression of Bcl-2 reduced the susceptibility of p35-null podocytes to apoptosis.
|
24 |
20130526
|
Our study shows that p35 does not affect glomerulogenesis but controls podocyte survival following injury, in part, by regulating Bcl-2 expression.
|
25 |
20130526
|
p35, the non-cyclin activator of Cdk5, protects podocytes against apoptosis in vitro and in vivo.
|
26 |
20130526
|
Cyclin-dependent kinase-5 is widely expressed and predominantly regulated by the non-cyclin activator p35.
|
27 |
20130526
|
Levels of Bcl-2 were decreased in these null podocytes but increased after transduction with human p35.
|
28 |
20130526
|
Restoration of p35 or the ectopic expression of Bcl-2 reduced the susceptibility of p35-null podocytes to apoptosis.
|
29 |
20130526
|
Our study shows that p35 does not affect glomerulogenesis but controls podocyte survival following injury, in part, by regulating Bcl-2 expression.
|
30 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
31 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
32 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
33 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
34 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
35 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
36 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
37 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
38 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
39 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
40 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
41 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
42 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
43 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
44 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
45 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
46 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
47 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
48 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
49 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
50 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
51 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
52 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
53 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
54 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
55 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
56 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
57 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
58 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
59 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
60 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
61 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
62 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
63 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
64 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
65 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
66 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
67 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
68 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
69 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
70 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
71 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
72 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
73 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
74 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
75 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
76 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
77 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
78 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
79 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
80 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
81 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
82 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
83 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
84 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
85 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
86 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
87 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
88 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
89 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
90 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
91 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
92 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
93 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
94 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
95 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
96 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
97 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
98 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
99 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
100 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
101 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
102 |
22262481
|
Both cyclin I and p35 are required for maximal survival benefit of cyclin-dependent kinase 5 in kidney podocytes.
|
103 |
22262481
|
Cyclin-dependent kinase (Cdk)-5 is activated by both cyclin I and the noncyclin activator p35 in terminally differentiated cells such as kidney podocytes and neurons.
|
104 |
22262481
|
Cyclin I and p35 are restricted to podocytes in the kidney, and each limit podocyte apoptosis by activating Cdk5.
|
105 |
22262481
|
The results showed that under nonstressed conditions double mutants had normal kidney structure and function and were indistinguishable from wild-type, cyclin I(-/-), or p35(-/-) mice.
|
106 |
22262481
|
In contrast, when stressed with disease, podocyte apoptosis increased fourfold compared with diseased cyclin I(-/-) or p35(-/-) mice.
|
107 |
22262481
|
Under normal states and nephritic states, levels for the prosurvival protein Bcl-2 were lower in double cyclin I(-/-) p35(-/-) mice than the other mice.
|
108 |
22262481
|
Similarly, levels of Bcl-xL, another prosurvival member, were lower in normal and nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
109 |
22262481
|
Moreover, levels of ERK1/2 and MEK1/2 activation were lower in nephritic double cyclin I(-/-) p35(-/-) mice but similar to single-cyclin I(-/-) mice.
|
110 |
22262481
|
The results demonstrate that the activators of Cdk5, p35, and cyclin I are not required for normal kidney function.
|
111 |
22614921
|
Considering that nestin is a substrate of cyclin-dependent kinase 5 (Cdk5), we further assessed the expression of Cdk5 in HG-treated podocytes.
|
112 |
22614921
|
The protein activator of Cdk5, p35, was also increased in a time-dependent manner by HG stimulation, and downregulation of Cdk5 by miRNA interference attenuated the nestin reduction in HG-treated podocytes; the HG-induced podocyte apoptosis, the increased cleaved caspase-3 expression and the Bax/Bcl-2 ratio were all effectively attenuated.
|
113 |
22614921
|
These data suggested that nestin, which is dependent on Cdk5 regulation, plays a cytoprotective role in HG-induced podocyte apoptosis.
|
114 |
24768698
|
High glucose increases Cdk5 activity in podocytes via transforming growth factor-β1 signaling pathway.
|
115 |
24768698
|
In this study, we showed that high glucose up-regulated the expression of Cdk5 and its co-activator p35 with a concomitant increase in Cdk5 kinase activity in conditionally immortalized mouse podocytes in vitro.
|
116 |
24768698
|
Most importantly, we found that SB431542, the Tgfbr1 inhibitor, significantly decreased the expression of Cdk5 and p35 and Cdk5 kinase activity in high glucose-treated podocytes.
|
117 |
24768698
|
Moreover, high glucose increased the expression of early growth response-1 (Egr-1) via TGF-β1-ERK1/2 pathway in podocytes and inhibition of Egr-1 by siRNA decreased p35 expression and Cdk5 kinase activity.
|
118 |
24768698
|
Thus, the TGF-β1-ERK1/2-Egr-1 signaling pathway may regulate the p35 expression and Cdk5 kinase activity in high glucose-treated podocytes, which contributes to podocyte injury of DN.
|
119 |
24768698
|
High glucose increases Cdk5 activity in podocytes via transforming growth factor-β1 signaling pathway.
|
120 |
24768698
|
In this study, we showed that high glucose up-regulated the expression of Cdk5 and its co-activator p35 with a concomitant increase in Cdk5 kinase activity in conditionally immortalized mouse podocytes in vitro.
|
121 |
24768698
|
Most importantly, we found that SB431542, the Tgfbr1 inhibitor, significantly decreased the expression of Cdk5 and p35 and Cdk5 kinase activity in high glucose-treated podocytes.
|
122 |
24768698
|
Moreover, high glucose increased the expression of early growth response-1 (Egr-1) via TGF-β1-ERK1/2 pathway in podocytes and inhibition of Egr-1 by siRNA decreased p35 expression and Cdk5 kinase activity.
|
123 |
24768698
|
Thus, the TGF-β1-ERK1/2-Egr-1 signaling pathway may regulate the p35 expression and Cdk5 kinase activity in high glucose-treated podocytes, which contributes to podocyte injury of DN.
|
124 |
24768698
|
High glucose increases Cdk5 activity in podocytes via transforming growth factor-β1 signaling pathway.
|
125 |
24768698
|
In this study, we showed that high glucose up-regulated the expression of Cdk5 and its co-activator p35 with a concomitant increase in Cdk5 kinase activity in conditionally immortalized mouse podocytes in vitro.
|
126 |
24768698
|
Most importantly, we found that SB431542, the Tgfbr1 inhibitor, significantly decreased the expression of Cdk5 and p35 and Cdk5 kinase activity in high glucose-treated podocytes.
|
127 |
24768698
|
Moreover, high glucose increased the expression of early growth response-1 (Egr-1) via TGF-β1-ERK1/2 pathway in podocytes and inhibition of Egr-1 by siRNA decreased p35 expression and Cdk5 kinase activity.
|
128 |
24768698
|
Thus, the TGF-β1-ERK1/2-Egr-1 signaling pathway may regulate the p35 expression and Cdk5 kinase activity in high glucose-treated podocytes, which contributes to podocyte injury of DN.
|
129 |
24768698
|
High glucose increases Cdk5 activity in podocytes via transforming growth factor-β1 signaling pathway.
|
130 |
24768698
|
In this study, we showed that high glucose up-regulated the expression of Cdk5 and its co-activator p35 with a concomitant increase in Cdk5 kinase activity in conditionally immortalized mouse podocytes in vitro.
|
131 |
24768698
|
Most importantly, we found that SB431542, the Tgfbr1 inhibitor, significantly decreased the expression of Cdk5 and p35 and Cdk5 kinase activity in high glucose-treated podocytes.
|
132 |
24768698
|
Moreover, high glucose increased the expression of early growth response-1 (Egr-1) via TGF-β1-ERK1/2 pathway in podocytes and inhibition of Egr-1 by siRNA decreased p35 expression and Cdk5 kinase activity.
|
133 |
24768698
|
Thus, the TGF-β1-ERK1/2-Egr-1 signaling pathway may regulate the p35 expression and Cdk5 kinase activity in high glucose-treated podocytes, which contributes to podocyte injury of DN.
|
134 |
25500740
|
Cyclin I and p35 determine the subcellular distribution of Cdk5.
|
135 |
25500740
|
The kinase activity, half-life, and substrate specificity of Cdk5 largely depend on specific activators, such as p25, p35, p39, and cyclin I.
|
136 |
25500740
|
Cdk5 localization was analyzed in murine kidney and brain slices of wild-type and cyclin I- and/or p35-null mice by immunohistochemistry and in cultured mouse podocytes using immunofluorescence labeling, as well as cell fractionation experiments.
|
137 |
25500740
|
The predominance of cyclin I mediates the nuclear localization of Cdk5, whereas the predominance of p35 results in a membranous localization of Cdk5.
|
138 |
25500740
|
These findings were further substantiated by overexpression of cyclin I and p35 with altered targeting characteristics in human embryonic kidney 293T cells.
|
139 |
25500740
|
Cyclin I and p35 determine the subcellular distribution of Cdk5.
|
140 |
25500740
|
The kinase activity, half-life, and substrate specificity of Cdk5 largely depend on specific activators, such as p25, p35, p39, and cyclin I.
|
141 |
25500740
|
Cdk5 localization was analyzed in murine kidney and brain slices of wild-type and cyclin I- and/or p35-null mice by immunohistochemistry and in cultured mouse podocytes using immunofluorescence labeling, as well as cell fractionation experiments.
|
142 |
25500740
|
The predominance of cyclin I mediates the nuclear localization of Cdk5, whereas the predominance of p35 results in a membranous localization of Cdk5.
|
143 |
25500740
|
These findings were further substantiated by overexpression of cyclin I and p35 with altered targeting characteristics in human embryonic kidney 293T cells.
|
144 |
25500740
|
Cyclin I and p35 determine the subcellular distribution of Cdk5.
|
145 |
25500740
|
The kinase activity, half-life, and substrate specificity of Cdk5 largely depend on specific activators, such as p25, p35, p39, and cyclin I.
|
146 |
25500740
|
Cdk5 localization was analyzed in murine kidney and brain slices of wild-type and cyclin I- and/or p35-null mice by immunohistochemistry and in cultured mouse podocytes using immunofluorescence labeling, as well as cell fractionation experiments.
|
147 |
25500740
|
The predominance of cyclin I mediates the nuclear localization of Cdk5, whereas the predominance of p35 results in a membranous localization of Cdk5.
|
148 |
25500740
|
These findings were further substantiated by overexpression of cyclin I and p35 with altered targeting characteristics in human embryonic kidney 293T cells.
|
149 |
25500740
|
Cyclin I and p35 determine the subcellular distribution of Cdk5.
|
150 |
25500740
|
The kinase activity, half-life, and substrate specificity of Cdk5 largely depend on specific activators, such as p25, p35, p39, and cyclin I.
|
151 |
25500740
|
Cdk5 localization was analyzed in murine kidney and brain slices of wild-type and cyclin I- and/or p35-null mice by immunohistochemistry and in cultured mouse podocytes using immunofluorescence labeling, as well as cell fractionation experiments.
|
152 |
25500740
|
The predominance of cyclin I mediates the nuclear localization of Cdk5, whereas the predominance of p35 results in a membranous localization of Cdk5.
|
153 |
25500740
|
These findings were further substantiated by overexpression of cyclin I and p35 with altered targeting characteristics in human embryonic kidney 293T cells.
|
154 |
27145370
|
CDK5 promotes renal tubulointerstitial fibrosis in diabetic nephropathy via ERK1/2/PPARγ pathway.
|
155 |
27145370
|
We report here that CDK5 is detrimental and promotes tubulointerstitial fibrosis (TIF) via the extracellular signal-regulated kinase 1/2 (ERK1/2)/peroxisome proliferator-activated receptor gamma (PPRAγ) pathway in DN.
|
156 |
27145370
|
In high glucose cultured NRK52E cells, blocking CDK5 activity inhibited epithelial-to-mesenchymal transition (EMT) and fibrosis via ERK1/2/PPARγ pathway.
|
157 |
27145370
|
In late staged DN patients, the upregulation of CDK5 and p35 activated phosphorylated ERK1/2 and PPARγ, leading to decreased levels of E-cadherin but increased Vimentin and Collagen IV.
|
158 |
27145370
|
These findings demonstrate a novel mechanism that CDK5 increases tubulointerstitial fibrosis by activating the ERK1/2/PPARγ pathway and EMT in DN.
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
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160 |
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Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
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161 |
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To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
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162 |
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To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
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163 |
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We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
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164 |
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It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
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165 |
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On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
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166 |
27479491
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Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
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167 |
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Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
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168 |
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We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
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169 |
27479491
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
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170 |
27479491
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Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
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171 |
27479491
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To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
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172 |
27479491
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To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
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173 |
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We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
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174 |
27479491
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It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
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175 |
27479491
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On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
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176 |
27479491
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Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
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177 |
27479491
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Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
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178 |
27479491
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We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
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179 |
27479491
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
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180 |
27479491
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Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
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181 |
27479491
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To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
182 |
27479491
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To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
183 |
27479491
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We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
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184 |
27479491
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It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
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185 |
27479491
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On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
186 |
27479491
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Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
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187 |
27479491
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Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
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188 |
27479491
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We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
189 |
27479491
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
190 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
191 |
27479491
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To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
192 |
27479491
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To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
193 |
27479491
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We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
194 |
27479491
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It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
195 |
27479491
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On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
196 |
27479491
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Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
197 |
27479491
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Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
198 |
27479491
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We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
199 |
27479491
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
200 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
201 |
27479491
|
To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
202 |
27479491
|
To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
203 |
27479491
|
We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
204 |
27479491
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It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
205 |
27479491
|
On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
206 |
27479491
|
Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
207 |
27479491
|
Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
208 |
27479491
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We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
209 |
27479491
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Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
210 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
211 |
27479491
|
To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
212 |
27479491
|
To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
213 |
27479491
|
We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
214 |
27479491
|
It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
215 |
27479491
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On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
216 |
27479491
|
Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
217 |
27479491
|
Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
218 |
27479491
|
We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
219 |
27479491
|
Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
220 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
221 |
27479491
|
To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
222 |
27479491
|
To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
223 |
27479491
|
We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
224 |
27479491
|
It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
225 |
27479491
|
On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
226 |
27479491
|
Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
227 |
27479491
|
Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
228 |
27479491
|
We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
229 |
27479491
|
Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
230 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
231 |
27479491
|
To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
232 |
27479491
|
To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
233 |
27479491
|
We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
234 |
27479491
|
It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
235 |
27479491
|
On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
236 |
27479491
|
Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
237 |
27479491
|
Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
238 |
27479491
|
We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|
239 |
27479491
|
Knockdown of Expression of Cdk5 or p35 (a Cdk5 Activator) Results in Podocyte Apoptosis.
|
240 |
27479491
|
Cdk5 is a cyclin-dependent protein kinase which is predominantly regulated by p35.
|
241 |
27479491
|
To study the role of Cdk5/p35 in podocyte survival, we first applied western blotting (WB) analysis to confirm the time-course expression of Cdk5 and p35 during kidney development and in cultured immortalized mouse podocytes.
|
242 |
27479491
|
To deregulate the expression of Cdk5 or p35 in mouse podocytes, we used RNAi and analyzed cell function and apoptosis assaying for podocyte specific marker Wilms Tumor 1 (WT1) and cleaved caspase 3, respectively.
|
243 |
27479491
|
We found that depletion of Cdk5 causes decreased expression of WT1 and apoptosis.
|
244 |
27479491
|
It is noteworthy, however, that downregulation of p35 reduced Cdk5 activity, but had no effect on cleaved caspase 3 expression.
|
245 |
27479491
|
On the other hand increased apoptosis could be detected in p35-deregulated podocytes using the TUNEL analysis and immunofluorescent staining with cleaved caspase3 antibody.
|
246 |
27479491
|
Viability of podocytes was decreased in both Cdk5 and p35 knockdown cells.
|
247 |
27479491
|
Knocking down Cdk5 or p35 gene by RNAi does not affect the cycline I expression, another Cdk5 activator in podocyes.
|
248 |
27479491
|
We conclude that Cdk5 and p35 play a crucial role in maintaining podocyte differentiation and survival, and suggest these proteins as targets for therapeutic intervention in podocyte-damaged kidney diseases.
|