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Structured Review

Proteintech pk m1
Pk M1, supplied by Proteintech, used in various techniques. Bioz Stars score: 95/100, based on 96 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/pk+m1/PKM1-specific+Antibody/us11236330-954-5-6
Average 95 stars, based on 96 article reviews
pk m1 - by Bioz Stars, 2026-09
95/100 stars

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Related Articles

Real-time Polymerase Chain Reaction:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Transfection:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Concentration Assay:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Staining:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Flow Cytometry:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Control:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Western Blot:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Stable Transfection:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).

Transduction:

Article Title: Antisense compounds and uses thereof
Article Snippet: Secondary antibodies were goat anti-mouse or anti-rabbit HRP conjugates (Bio-Rad, 1:20,000).



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Image Search Results


Cell and compartmental specific primary antibodies.

Journal: Molecular Vision

Article Title: The cellular and compartmental profile of mouse retinal glycolysis, tricarboxylic acid cycle, oxidative phosphorylation, and ~P transferring kinases

doi:

Figure Lengend Snippet: Cell and compartmental specific primary antibodies.

Article Snippet: Polyclonal rabbit antibodies used to characterize the expression of the different isozymes involved in glycolysis and aerobic glycolysis included anti-HK-1 and HK-2 antibodies (Cell Signaling Technology, Inc.; Danvers, MA) that detected a band of 102 kDa in retinal homogenates (data not shown) and are used to selectively label HK isoforms in cancer cells [ - ], an anti-PFK-L antibody that detects a single 85 kDa band (Abgent, San Diego, CA; data not shown) that detects a single 85 kDa band (Sigma, St. Louis, MO; Abcam, Cambridge MA; and Cell Signaling Technology, Inc.), anti-PK-M1 and PK-M2 antibodies (Sigma, Abcam, and Cell Signaling) that detects a 60 kDa band in retinal homogenates (data not shown) and are used to selectively detect PK-M isoforms in cancer cells [ , ], and anti-LDH-A (LDH-5) and pan-LDH antibodies (Abgent) that detect a band at 30–35 kDa (manufacturer technical information).

Techniques:

Confocal images show that two functionally distinct isozymes of pyruvate kinase M (PK-M1 and PK-M2) are differentially expressed throughout the adult retina. A : PK-M1 is expressed in all retinal neurons and synapses. B : High-magnification image of the outer retina immunolabeled for PK-M1. C : PK-M1 and COX IV colocalize (yellow-orange pixels) in the rod and cone IS and in cone perinuclear mitochondria (white arrowheads). D : High-magnification image of the outer retina from neural retina leucine zipper –green fluorescent protein ( Nrl- GFP) transgenic mice (pseudocolored in red). E : PK-M1 is expressed in the rods (yellow-orange pixels: colabeled with Nrl -GFP) and cones (green only pixels). F : PK-M1 and VGLUT1 colocalized in the OPL and the IPL (aquamarine pixels). G : PK-M1 weakly colocalized in PKCα-IR rod bipolar cell dendrites and somas but colocalized in the rod bipolar cell axon terminals in the IPL-b (yellow-orange pixels). H : Retina triple-labeled for PK-M1, calbindin, and CHX10. PK-M1 and calbindin colocalize in horizontal cell axons in the rods (white arrowheads) and in dendrites in the cones (white arrows) but minimally in the somas. CHX10-IR bipolar cells weakly express PK-M1. I : PK-M2 is expressed in the OPL and the IPL. J : High-magnification image shows colocalization of PK-M2 and VGLUT1 throughout the OPL. K : High-magnification image only shows weak colocalization of PK-M2 and calbindin in horizontal cell processes. L : High-magnification image shows colocalization of PK-M2 and PKCα in the rod bipolar cell dendrites (yellow pixels: white arrows). L : High magnification of the OPL of a retina double-labeled for PK-M2 and VGLUT1. M : PK-M2 colocalized in the PKCα-IR rod bipolar cell dendrites and axon terminals (yellow-orange pixels) but not in the somas. COX IV = cytochrome c oxidase subunit IV, IPL = inner plexiform layer, IPL-a = IPL sublamina-a, IPL-b = sublamina-b, ISs = inner segments, ONL = outer nuclear layer, OPL = outer plexiform layer, OSs = outer segments, PKCα-IR = protein kinase C α immunoreactivity, VGLUT1 = vesicular glutamate transporter 1. A, F–G, and I, scale bars = 40 µm. B–E, H, and J–M, scale bars = 20 µm.

Journal: Molecular Vision

Article Title: The cellular and compartmental profile of mouse retinal glycolysis, tricarboxylic acid cycle, oxidative phosphorylation, and ~P transferring kinases

doi:

Figure Lengend Snippet: Confocal images show that two functionally distinct isozymes of pyruvate kinase M (PK-M1 and PK-M2) are differentially expressed throughout the adult retina. A : PK-M1 is expressed in all retinal neurons and synapses. B : High-magnification image of the outer retina immunolabeled for PK-M1. C : PK-M1 and COX IV colocalize (yellow-orange pixels) in the rod and cone IS and in cone perinuclear mitochondria (white arrowheads). D : High-magnification image of the outer retina from neural retina leucine zipper –green fluorescent protein ( Nrl- GFP) transgenic mice (pseudocolored in red). E : PK-M1 is expressed in the rods (yellow-orange pixels: colabeled with Nrl -GFP) and cones (green only pixels). F : PK-M1 and VGLUT1 colocalized in the OPL and the IPL (aquamarine pixels). G : PK-M1 weakly colocalized in PKCα-IR rod bipolar cell dendrites and somas but colocalized in the rod bipolar cell axon terminals in the IPL-b (yellow-orange pixels). H : Retina triple-labeled for PK-M1, calbindin, and CHX10. PK-M1 and calbindin colocalize in horizontal cell axons in the rods (white arrowheads) and in dendrites in the cones (white arrows) but minimally in the somas. CHX10-IR bipolar cells weakly express PK-M1. I : PK-M2 is expressed in the OPL and the IPL. J : High-magnification image shows colocalization of PK-M2 and VGLUT1 throughout the OPL. K : High-magnification image only shows weak colocalization of PK-M2 and calbindin in horizontal cell processes. L : High-magnification image shows colocalization of PK-M2 and PKCα in the rod bipolar cell dendrites (yellow pixels: white arrows). L : High magnification of the OPL of a retina double-labeled for PK-M2 and VGLUT1. M : PK-M2 colocalized in the PKCα-IR rod bipolar cell dendrites and axon terminals (yellow-orange pixels) but not in the somas. COX IV = cytochrome c oxidase subunit IV, IPL = inner plexiform layer, IPL-a = IPL sublamina-a, IPL-b = sublamina-b, ISs = inner segments, ONL = outer nuclear layer, OPL = outer plexiform layer, OSs = outer segments, PKCα-IR = protein kinase C α immunoreactivity, VGLUT1 = vesicular glutamate transporter 1. A, F–G, and I, scale bars = 40 µm. B–E, H, and J–M, scale bars = 20 µm.

Article Snippet: Polyclonal rabbit antibodies used to characterize the expression of the different isozymes involved in glycolysis and aerobic glycolysis included anti-HK-1 and HK-2 antibodies (Cell Signaling Technology, Inc.; Danvers, MA) that detected a band of 102 kDa in retinal homogenates (data not shown) and are used to selectively label HK isoforms in cancer cells [ - ], an anti-PFK-L antibody that detects a single 85 kDa band (Abgent, San Diego, CA; data not shown) that detects a single 85 kDa band (Sigma, St. Louis, MO; Abcam, Cambridge MA; and Cell Signaling Technology, Inc.), anti-PK-M1 and PK-M2 antibodies (Sigma, Abcam, and Cell Signaling) that detects a 60 kDa band in retinal homogenates (data not shown) and are used to selectively detect PK-M isoforms in cancer cells [ , ], and anti-LDH-A (LDH-5) and pan-LDH antibodies (Abgent) that detect a band at 30–35 kDa (manufacturer technical information).

Techniques: Immunolabeling, Transgenic Assay, Labeling

Integrated summary of relative Ab intensity levels obtained from the immunoreactivity of bioenergetic regulating and buffering enzymes in the neuronal and glial compartments of the adult light-adapted C57BL/6N mouse retina. The numbers on the x-axis (from 1 to 22) indicate the specific retinal compartments (see key). The values on the y-axis represent the integrated mean relative intensity values of immunoreactivity levels for enzymes that regulate glycolysis (HK-1, HK-2, PFK-L1, PK-M1, and PK-M2), aerobic glycolysis (pan-LDH and LDH-5), the tricarboxylic acid (TCA) cycle (OGDH and STK), oxidative phosphorylation (OXPHOS; cytochrome c oxidase subunit IV, COX IV), and the ~P transferring kinases (NDPK, AK1, AK2, CK-B, CK-M, and mi-CK) obtained from Appendix 1. Overall, the findings reveal highly compartmentalized and graded expression levels of the different enzymes in the outer compared to the inner retina as well as in the Müller glial cells (MGCs) compared to the neurons. Glycolytic enzymes (solid black squares and line) are higher in the outer retina than in the inner retina, except in the rod and cone outer segments (ROSs; COSs). Specifically, the highest levels (i.e., ≥3 on intensity scale) are in the rod and cone inner segments (RISs; CISs), rod spherules, and cone pedicles where most of the retinal mitochondria are located [ , ]. Enzyme levels are slightly lower (i.e., 2.5–3.0) in the cone somas, the inner plexiform layer (IPL), the IPL sublamina-a, and sublamina-b (IPL-a; IPL-b) and still lower (i.e., 2.0–2.5) in the rod somas, inner nuclear layer (INL) somas, ganglion cell layer (GCL), and MGC end-feet/nerve fiber layer (NFL), and lowest (i.e., 1.0–1.75) in the ROS and COS, bipolar cell (BC) dendrites, horizontal cell (HC) somas and processes, and MGC somas. No glycolytic enzyme immunoreactivity was detected in the MGC external limiting membrane (ELM) or processes. Similar to glycolysis, aerobic glycolysis is higher in the outer retina than in the inner retina, except again for the ROSs and COSs. Compared to the RIS, aerobic glycolysis is just slightly lower in the CISs, rod and cone somas, and spherules and pedicles, as seen with the lactate dehydrogenase (LDH) activity . The BC dendrites, HC somas, and HC process have no apparent aerobic glycolytic capacity. Except amacrine cells in the proximal INL and the GCL, aerobic glycolysis is low (i.e., 1.0–2.0) in the inner retina. Aerobic glycolysis is absent to low (i.e., ≤1.0) throughout the MGCs. OXPHOS capacity is present and relatively high in all outer and inner retinal compartments, except in the ROS and COS (no COX IV or COX activity detected) and the INL somas (i.e., ≤2.0). As the IS showed high expression of GDH1 and the inner retinal neurons had the highest GLS expression levels , the high OXPHOS capacity in these compartments may be supported by non-glucose derivatives. Except the MGC end-feet/NFL, OXPHOS capacity was not detected in any MGC compartments, consistent with the COX activity and . In the outer retina, the TCA cycle expression profile essentially mirrors that of OXPHOS. In the inner retina, except in the INL somas, the TCA cycle expression is moderately high (i.e., 2.5 to 3.0) and mirrors that of OXPHOS. The TCA cycle expression profile in MGCs is characterized by moderate to high expression (i.e., 2.5 to 3.0) in the ELM, proximal processes, and end-feet/NFL and lower expression (i.e., 2.0) in the distal process and somas. This is in marked contrast to their expression of enzymes related to glycolysis, aerobic glycolysis, and OXPHOS. MGCs also have a capacity for glutamate and GABA catabolism, as well as GTP production . Together, this suggests that MGCs support their bioenergetics demands using non-glucose derivatives to generate GTP. The ~P transferring kinases were differentially distributed among all compartments of the inner and outer retinal neurons. The ~P transferring kinases were more highly expressed in all cone compartments (CIS, somas, and pedicles, i.e., 3.5) compared to similar rod compartments (i.e., 2.0–2.5). The ~P transferring kinases were also moderately to highly expressed in the BC dendrites, HC somas, and HC processes, compartments that had low glycolytic and/or aerobic glycolytic capacity. In the MGCs, the ~P transferring kinases were moderately expressed in the ELM and distal processes and had lower expression (i.e., ≥2.0) the somas, proximal processes, and end-feet/NFL. As the MGCs lack OXPHOS capacity, except in the end-feet/NFL, the ~P transferring kinases likely convert the GTP produced in the TCA cycle to ATP, as well as buffer the ATP concentration.

Journal: Molecular Vision

Article Title: The cellular and compartmental profile of mouse retinal glycolysis, tricarboxylic acid cycle, oxidative phosphorylation, and ~P transferring kinases

doi:

Figure Lengend Snippet: Integrated summary of relative Ab intensity levels obtained from the immunoreactivity of bioenergetic regulating and buffering enzymes in the neuronal and glial compartments of the adult light-adapted C57BL/6N mouse retina. The numbers on the x-axis (from 1 to 22) indicate the specific retinal compartments (see key). The values on the y-axis represent the integrated mean relative intensity values of immunoreactivity levels for enzymes that regulate glycolysis (HK-1, HK-2, PFK-L1, PK-M1, and PK-M2), aerobic glycolysis (pan-LDH and LDH-5), the tricarboxylic acid (TCA) cycle (OGDH and STK), oxidative phosphorylation (OXPHOS; cytochrome c oxidase subunit IV, COX IV), and the ~P transferring kinases (NDPK, AK1, AK2, CK-B, CK-M, and mi-CK) obtained from Appendix 1. Overall, the findings reveal highly compartmentalized and graded expression levels of the different enzymes in the outer compared to the inner retina as well as in the Müller glial cells (MGCs) compared to the neurons. Glycolytic enzymes (solid black squares and line) are higher in the outer retina than in the inner retina, except in the rod and cone outer segments (ROSs; COSs). Specifically, the highest levels (i.e., ≥3 on intensity scale) are in the rod and cone inner segments (RISs; CISs), rod spherules, and cone pedicles where most of the retinal mitochondria are located [ , ]. Enzyme levels are slightly lower (i.e., 2.5–3.0) in the cone somas, the inner plexiform layer (IPL), the IPL sublamina-a, and sublamina-b (IPL-a; IPL-b) and still lower (i.e., 2.0–2.5) in the rod somas, inner nuclear layer (INL) somas, ganglion cell layer (GCL), and MGC end-feet/nerve fiber layer (NFL), and lowest (i.e., 1.0–1.75) in the ROS and COS, bipolar cell (BC) dendrites, horizontal cell (HC) somas and processes, and MGC somas. No glycolytic enzyme immunoreactivity was detected in the MGC external limiting membrane (ELM) or processes. Similar to glycolysis, aerobic glycolysis is higher in the outer retina than in the inner retina, except again for the ROSs and COSs. Compared to the RIS, aerobic glycolysis is just slightly lower in the CISs, rod and cone somas, and spherules and pedicles, as seen with the lactate dehydrogenase (LDH) activity . The BC dendrites, HC somas, and HC process have no apparent aerobic glycolytic capacity. Except amacrine cells in the proximal INL and the GCL, aerobic glycolysis is low (i.e., 1.0–2.0) in the inner retina. Aerobic glycolysis is absent to low (i.e., ≤1.0) throughout the MGCs. OXPHOS capacity is present and relatively high in all outer and inner retinal compartments, except in the ROS and COS (no COX IV or COX activity detected) and the INL somas (i.e., ≤2.0). As the IS showed high expression of GDH1 and the inner retinal neurons had the highest GLS expression levels , the high OXPHOS capacity in these compartments may be supported by non-glucose derivatives. Except the MGC end-feet/NFL, OXPHOS capacity was not detected in any MGC compartments, consistent with the COX activity and . In the outer retina, the TCA cycle expression profile essentially mirrors that of OXPHOS. In the inner retina, except in the INL somas, the TCA cycle expression is moderately high (i.e., 2.5 to 3.0) and mirrors that of OXPHOS. The TCA cycle expression profile in MGCs is characterized by moderate to high expression (i.e., 2.5 to 3.0) in the ELM, proximal processes, and end-feet/NFL and lower expression (i.e., 2.0) in the distal process and somas. This is in marked contrast to their expression of enzymes related to glycolysis, aerobic glycolysis, and OXPHOS. MGCs also have a capacity for glutamate and GABA catabolism, as well as GTP production . Together, this suggests that MGCs support their bioenergetics demands using non-glucose derivatives to generate GTP. The ~P transferring kinases were differentially distributed among all compartments of the inner and outer retinal neurons. The ~P transferring kinases were more highly expressed in all cone compartments (CIS, somas, and pedicles, i.e., 3.5) compared to similar rod compartments (i.e., 2.0–2.5). The ~P transferring kinases were also moderately to highly expressed in the BC dendrites, HC somas, and HC processes, compartments that had low glycolytic and/or aerobic glycolytic capacity. In the MGCs, the ~P transferring kinases were moderately expressed in the ELM and distal processes and had lower expression (i.e., ≥2.0) the somas, proximal processes, and end-feet/NFL. As the MGCs lack OXPHOS capacity, except in the end-feet/NFL, the ~P transferring kinases likely convert the GTP produced in the TCA cycle to ATP, as well as buffer the ATP concentration.

Article Snippet: Polyclonal rabbit antibodies used to characterize the expression of the different isozymes involved in glycolysis and aerobic glycolysis included anti-HK-1 and HK-2 antibodies (Cell Signaling Technology, Inc.; Danvers, MA) that detected a band of 102 kDa in retinal homogenates (data not shown) and are used to selectively label HK isoforms in cancer cells [ - ], an anti-PFK-L antibody that detects a single 85 kDa band (Abgent, San Diego, CA; data not shown) that detects a single 85 kDa band (Sigma, St. Louis, MO; Abcam, Cambridge MA; and Cell Signaling Technology, Inc.), anti-PK-M1 and PK-M2 antibodies (Sigma, Abcam, and Cell Signaling) that detects a 60 kDa band in retinal homogenates (data not shown) and are used to selectively detect PK-M isoforms in cancer cells [ , ], and anti-LDH-A (LDH-5) and pan-LDH antibodies (Abgent) that detect a band at 30–35 kDa (manufacturer technical information).

Techniques: Transferring, Expressing, Activity Assay, Produced, Concentration Assay