- Category
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- Chloroplast 685
- Mitochondria 296
- Cytoplasm 528
- Plasma Membrane 361
- Golgi 122
- Endoplasmic Reticulum 110
- Plastidial 171
- Peroxisomal 47
- Nucleus 1017
- Vacuole 134
- Cell Wall 12
- Extracellular 101
Arabidopsis Antibodies
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Starting at $89.00
Immunogen: AT3G10340 Q9SS45 Synonyms: PAL1/2/4, ATPAL1/2/4 Background:
Phenylalanine ammonia-lyase (PAL) is a key enzyme of plant metabolism catalyzing the first reaction in the biosynthesis from L-phenylalanine of a wide variety of natural products based on the phenylpropane skeleton. Arabidopsis has four PALs: AT2G37040 (PAL1), AT3G53260 (PAL2), AT5G04230 (PAL3) and AT3G10340 (PAL4). -
Starting at $89.00
Immunogen: AT1G04630 Q8RWA7 Synonyms: MATERNAL EFFECT EMBRYO ARREST 4, MEE4 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits and GRIM-19 (AT2G33220/AT1G04630) may be one of the subunit. -
Starting at $89.00
Immunogen: AT2G33220 O49313 Synonyms: GRIM-19 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits and GRIM-19 (AT2G33220/AT1G04630) may be one of the subunit. -
Starting at $89.00
Immunogen: AT3G62790 Q9LZI6 Synonyms: AT3G62790, AT2G47690 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits and AT3G62790 may be one of the subunit. -
Starting at $89.00
Immunogen: AT2G47690 O82238 Synonyms: AT3G62790, AT2G47690 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits and AT3G62790 may be one of the subunit. -
Starting at $89.00
Immunogen: ATMG00285 O05000 Synonyms: NAD2, NADH DEHYDROGENASE 2 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits. NAD2 is one of the subunit and contains two protein NAD2A (ATMG00285) and NAD2B (ATMG01320) -
Starting at $89.00
Immunogen: AT3G15640 Q9LW15 Synonyms: COX Vb, COX5B-1, COX5B Background:
Cytochrome c oxidase is the last enzyme in the respiratory electron transport chain of mitochondria and it is also called Complex IV. Cytochrome c oxidase receives an electron from each of four cytochrome c molecules, and transfers them to one oxygen molecule, converting molecular oxygen to two molecules of water. In higher plants mitochondria, Complex IV processes 14 subunits. COX Vb (AT3G15640/AT1G80230) is one subunit of the Complex IV. -
Starting at $89.00
Immunogen: AT2G07751 Q3EC47 Synonyms: NAD3, NADH DEHYDROGENASE 3 Background:
Complex I is the largest protein complex of the oxidative phosphorylation system in mitochondrial and it catalyzes NADH-quinone oxidoreduction. Complex I represents the main entrance site for electrons into the respiratory electron transfer chain. In Arabidopsis, Complex I have at least 49 subunits and NAD3 (ATMG00990) is one of the subunit. -
Starting at $89.00
Immunogen: AT1G76030 P11574 Synonyms: VAB1/3, ATVAB1/3, V-ATPASE B SUBUNIT 1/3 Background:
Arabidopsis V-ATPase has three B subunits (AtVAB1, AtVAB2, and AtVAB3), which share 97.27% sequence identity and have two potential actin-binding sites, indicating that these AtVABs may have crucial functions in actin cytoskeleton remodeling and plant cell development.