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90
ATCC united states solar saltern draft halorubrum kocurii jcm 14978 prjna188615 ncbi inner mongolia
United States Solar Saltern Draft Halorubrum Kocurii Jcm 14978 Prjna188615 Ncbi Inner Mongolia, supplied by ATCC, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/14978/Ciboria+acerina+Whetzel+et+Buckwald/pm24782836-202-137-156
Average 90 stars, based on 1 article reviews
united states solar saltern draft halorubrum kocurii jcm 14978 prjna188615 ncbi inner mongolia - by Bioz Stars, 2026-10
90/100 stars
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92
Cell Signaling Technology Inc anti phospho rad18 ser403
Anti Phospho Rad18 Ser403, supplied by Cell Signaling Technology Inc, used in various techniques. Bioz Stars score: 92/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/14978/Phospho-Rad18+(Ser403)+Rabbit+mAb/pmc10987609-309-6-22
Average 92 stars, based on 1 article reviews
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93
Proteintech rabbit anti ak1
a AMPKγ1-D317A impairs glucose-starvation-induced AMPK activation. HA-tagged AMPK-γ1 and its D317A mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by immunoblotting. b, c AMPKγ2-R531G blocks the phosphorylation of cytosolic and mitochondrial AMPK under moderate and high AMP levels. HA-tagged AMPK-γ2 and its R531G mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα (b), or by immunoprecipitation and immunoblotting for analyzing p-ACC1 and p-ACC2 (c). Statistical analysis data were shown in mean ± SD; ***p < 0.001, *p < 0.05, N.S., not significant by ANOVA, n = 3. d Knockout of <t>AK1</t> significantly dampens the activation of mitochondrial- and cytosolic-localized AMPK in high AMP conditions. MEFs with AK1 being knocked out were deprived of glucose or both glucose and glutamine for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα. Statistical analysis data were shown in mean ± SD; ***p < 0.001, **p < 0.01, *p < 0.05, N.S., not significant by ANOA, n = 3. e A simplified model depicting that the differentially compartmentalized pools of AMPK are activated with different dependencies on AXIN, and the severities of nutrient or energy stress. Glucose starvation, without increase of AMP levels, exclusively activates the lysosomal pool of AMPK through the AXIN-based pathway (➊) which phosphorylates substrates including ACC1, SREBP1, TSC2, Raptor, HDAC4, ULK1, and TBC1D1 to elicit early anti-anabolic roles. Moderately increased AMP levels, during the early phase of severe starvation or after treatment of low concentrations of AICAR, activates cytosolic AMPK, in addition to the lysosomal AMPK (➋), still dependent on AXIN. When AMP levels go up further as a result of severe starvation, ischemia, or treatment of high concentrations of AICAR, cytosolic AMPK (➌) and mitochondrial AMPK (➍) are activated independently of AXIN, leading to phosphorylation of ACC2 and MFF and accelerating catabolic activities, along with all the other substrates that can be phsophorylated at lower AMP levels. Of note, TSC2 and Raptor can be phosphorylated by all the four modes to respectively inhibit mTORC1 activity. Experiments in this figure were performed three times. See also Supplementary information, Fig. S4
Rabbit Anti Ak1, supplied by Proteintech, used in various techniques. Bioz Stars score: 93/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/14978/AK1+Antibody/pmc06796943-519-0-27
Average 93 stars, based on 1 article reviews
rabbit anti ak1 - by Bioz Stars, 2026-10
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85
ChromaDex quercetin 3 o glucose
a AMPKγ1-D317A impairs glucose-starvation-induced AMPK activation. HA-tagged AMPK-γ1 and its D317A mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by immunoblotting. b, c AMPKγ2-R531G blocks the phosphorylation of cytosolic and mitochondrial AMPK under moderate and high AMP levels. HA-tagged AMPK-γ2 and its R531G mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα (b), or by immunoprecipitation and immunoblotting for analyzing p-ACC1 and p-ACC2 (c). Statistical analysis data were shown in mean ± SD; ***p < 0.001, *p < 0.05, N.S., not significant by ANOVA, n = 3. d Knockout of <t>AK1</t> significantly dampens the activation of mitochondrial- and cytosolic-localized AMPK in high AMP conditions. MEFs with AK1 being knocked out were deprived of glucose or both glucose and glutamine for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα. Statistical analysis data were shown in mean ± SD; ***p < 0.001, **p < 0.01, *p < 0.05, N.S., not significant by ANOA, n = 3. e A simplified model depicting that the differentially compartmentalized pools of AMPK are activated with different dependencies on AXIN, and the severities of nutrient or energy stress. Glucose starvation, without increase of AMP levels, exclusively activates the lysosomal pool of AMPK through the AXIN-based pathway (➊) which phosphorylates substrates including ACC1, SREBP1, TSC2, Raptor, HDAC4, ULK1, and TBC1D1 to elicit early anti-anabolic roles. Moderately increased AMP levels, during the early phase of severe starvation or after treatment of low concentrations of AICAR, activates cytosolic AMPK, in addition to the lysosomal AMPK (➋), still dependent on AXIN. When AMP levels go up further as a result of severe starvation, ischemia, or treatment of high concentrations of AICAR, cytosolic AMPK (➌) and mitochondrial AMPK (➍) are activated independently of AXIN, leading to phosphorylation of ACC2 and MFF and accelerating catabolic activities, along with all the other substrates that can be phsophorylated at lower AMP levels. Of note, TSC2 and Raptor can be phosphorylated by all the four modes to respectively inhibit mTORC1 activity. Experiments in this figure were performed three times. See also Supplementary information, Fig. S4
Quercetin 3 O Glucose, supplied by ChromaDex, used in various techniques. Bioz Stars score: 85/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/14978/Xanthone/10__3390_slash_molecules19010438-89-1-22
Average 85 stars, based on 1 article reviews
quercetin 3 o glucose - by Bioz Stars, 2026-10
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95
Chem Impex International xan protection
a AMPKγ1-D317A impairs glucose-starvation-induced AMPK activation. HA-tagged AMPK-γ1 and its D317A mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by immunoblotting. b, c AMPKγ2-R531G blocks the phosphorylation of cytosolic and mitochondrial AMPK under moderate and high AMP levels. HA-tagged AMPK-γ2 and its R531G mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα (b), or by immunoprecipitation and immunoblotting for analyzing p-ACC1 and p-ACC2 (c). Statistical analysis data were shown in mean ± SD; ***p < 0.001, *p < 0.05, N.S., not significant by ANOVA, n = 3. d Knockout of <t>AK1</t> significantly dampens the activation of mitochondrial- and cytosolic-localized AMPK in high AMP conditions. MEFs with AK1 being knocked out were deprived of glucose or both glucose and glutamine for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα. Statistical analysis data were shown in mean ± SD; ***p < 0.001, **p < 0.01, *p < 0.05, N.S., not significant by ANOA, n = 3. e A simplified model depicting that the differentially compartmentalized pools of AMPK are activated with different dependencies on AXIN, and the severities of nutrient or energy stress. Glucose starvation, without increase of AMP levels, exclusively activates the lysosomal pool of AMPK through the AXIN-based pathway (➊) which phosphorylates substrates including ACC1, SREBP1, TSC2, Raptor, HDAC4, ULK1, and TBC1D1 to elicit early anti-anabolic roles. Moderately increased AMP levels, during the early phase of severe starvation or after treatment of low concentrations of AICAR, activates cytosolic AMPK, in addition to the lysosomal AMPK (➋), still dependent on AXIN. When AMP levels go up further as a result of severe starvation, ischemia, or treatment of high concentrations of AICAR, cytosolic AMPK (➌) and mitochondrial AMPK (➍) are activated independently of AXIN, leading to phosphorylation of ACC2 and MFF and accelerating catabolic activities, along with all the other substrates that can be phsophorylated at lower AMP levels. Of note, TSC2 and Raptor can be phosphorylated by all the four modes to respectively inhibit mTORC1 activity. Experiments in this figure were performed three times. See also Supplementary information, Fig. S4
Xan Protection, supplied by Chem Impex International, used in various techniques. Bioz Stars score: 95/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/14978/Xanthone/pmc12368100-246-6-13
Average 95 stars, based on 1 article reviews
xan protection - by Bioz Stars, 2026-10
95/100 stars
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N/A
Standard format: Plasmid sent in bacteria as agar stab
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Image Search Results


a AMPKγ1-D317A impairs glucose-starvation-induced AMPK activation. HA-tagged AMPK-γ1 and its D317A mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by immunoblotting. b, c AMPKγ2-R531G blocks the phosphorylation of cytosolic and mitochondrial AMPK under moderate and high AMP levels. HA-tagged AMPK-γ2 and its R531G mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα (b), or by immunoprecipitation and immunoblotting for analyzing p-ACC1 and p-ACC2 (c). Statistical analysis data were shown in mean ± SD; ***p < 0.001, *p < 0.05, N.S., not significant by ANOVA, n = 3. d Knockout of AK1 significantly dampens the activation of mitochondrial- and cytosolic-localized AMPK in high AMP conditions. MEFs with AK1 being knocked out were deprived of glucose or both glucose and glutamine for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα. Statistical analysis data were shown in mean ± SD; ***p < 0.001, **p < 0.01, *p < 0.05, N.S., not significant by ANOA, n = 3. e A simplified model depicting that the differentially compartmentalized pools of AMPK are activated with different dependencies on AXIN, and the severities of nutrient or energy stress. Glucose starvation, without increase of AMP levels, exclusively activates the lysosomal pool of AMPK through the AXIN-based pathway (➊) which phosphorylates substrates including ACC1, SREBP1, TSC2, Raptor, HDAC4, ULK1, and TBC1D1 to elicit early anti-anabolic roles. Moderately increased AMP levels, during the early phase of severe starvation or after treatment of low concentrations of AICAR, activates cytosolic AMPK, in addition to the lysosomal AMPK (➋), still dependent on AXIN. When AMP levels go up further as a result of severe starvation, ischemia, or treatment of high concentrations of AICAR, cytosolic AMPK (➌) and mitochondrial AMPK (➍) are activated independently of AXIN, leading to phosphorylation of ACC2 and MFF and accelerating catabolic activities, along with all the other substrates that can be phsophorylated at lower AMP levels. Of note, TSC2 and Raptor can be phosphorylated by all the four modes to respectively inhibit mTORC1 activity. Experiments in this figure were performed three times. See also Supplementary information, Fig. S4

Journal: Cell Research

Article Title: Hierarchical activation of compartmentalized pools of AMPK depends on severity of nutrient or energy stress

doi: 10.1038/s41422-019-0163-6

Figure Lengend Snippet: a AMPKγ1-D317A impairs glucose-starvation-induced AMPK activation. HA-tagged AMPK-γ1 and its D317A mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by immunoblotting. b, c AMPKγ2-R531G blocks the phosphorylation of cytosolic and mitochondrial AMPK under moderate and high AMP levels. HA-tagged AMPK-γ2 and its R531G mutant were re-introduced into AMPKγ-TKO HEK293T cells. Cells were then deprived of glucose for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα (b), or by immunoprecipitation and immunoblotting for analyzing p-ACC1 and p-ACC2 (c). Statistical analysis data were shown in mean ± SD; ***p < 0.001, *p < 0.05, N.S., not significant by ANOVA, n = 3. d Knockout of AK1 significantly dampens the activation of mitochondrial- and cytosolic-localized AMPK in high AMP conditions. MEFs with AK1 being knocked out were deprived of glucose or both glucose and glutamine for 2 h, followed by fractionation and immunoblotting for analyzing p-AMPKα. Statistical analysis data were shown in mean ± SD; ***p < 0.001, **p < 0.01, *p < 0.05, N.S., not significant by ANOA, n = 3. e A simplified model depicting that the differentially compartmentalized pools of AMPK are activated with different dependencies on AXIN, and the severities of nutrient or energy stress. Glucose starvation, without increase of AMP levels, exclusively activates the lysosomal pool of AMPK through the AXIN-based pathway (➊) which phosphorylates substrates including ACC1, SREBP1, TSC2, Raptor, HDAC4, ULK1, and TBC1D1 to elicit early anti-anabolic roles. Moderately increased AMP levels, during the early phase of severe starvation or after treatment of low concentrations of AICAR, activates cytosolic AMPK, in addition to the lysosomal AMPK (➋), still dependent on AXIN. When AMP levels go up further as a result of severe starvation, ischemia, or treatment of high concentrations of AICAR, cytosolic AMPK (➌) and mitochondrial AMPK (➍) are activated independently of AXIN, leading to phosphorylation of ACC2 and MFF and accelerating catabolic activities, along with all the other substrates that can be phsophorylated at lower AMP levels. Of note, TSC2 and Raptor can be phosphorylated by all the four modes to respectively inhibit mTORC1 activity. Experiments in this figure were performed three times. See also Supplementary information, Fig. S4

Article Snippet: Rabbit anti-AK1 (cat. 14978-1-AP, 1:500 for IB) and rabbit anti AXIN2 (cat. 20540-1-AP, 1:1000 for IB, only for Supplementary information , Fig. S1h ) were purchased from Proteintech.

Techniques: Activation Assay, Mutagenesis, Western Blot, Fractionation, Immunoprecipitation, Knock-Out, Activity Assay