Acetylcholinesterase/ACHE Products
The classical role of ACHE is to terminate cholinergic neurotransmission by hydrolysis of acetylcholine (ACH). ACHE is thought to be involved in the pathology of Alzheimer's disease (AD) by accelerating the assembly of Abeta peptides into fibrillar species through forming complexes with Abeta via the peripheral anionic site on ACHE. ACHE inhibitors have been used to delay symptoms of AD patients by virtue of their ability to enhance ACH availability, as well as reduce amyloidogenesis and subsequent neurotoxicity. Its involvement in the cholinergic anti-inflammatory pathway connects ACHE with a possible marker of low-grade systemic inflammation in obesity, hypertension, coronary heart disease, and AD. Alternative splicing produces three isoforms: an amphipathic form that exists as both monomeric and mutimeric forms, a soluble-monomeric form lacking the cysteine residue near the C-terminus, and a GPI-anchored dimeric form found in the membranes of erythrocytes. The recombinant mouse ACHE (rmACHE) was expressed as the amphipathic form that consists of soluble monomer and mutimeric forms.
86 results for "Acetylcholinesterase/ACHE" in Products
86 results for "Acetylcholinesterase/ACHE" in Products
Acetylcholinesterase/ACHE Products
The classical role of ACHE is to terminate cholinergic neurotransmission by hydrolysis of acetylcholine (ACH). ACHE is thought to be involved in the pathology of Alzheimer's disease (AD) by accelerating the assembly of Abeta peptides into fibrillar species through forming complexes with Abeta via the peripheral anionic site on ACHE. ACHE inhibitors have been used to delay symptoms of AD patients by virtue of their ability to enhance ACH availability, as well as reduce amyloidogenesis and subsequent neurotoxicity. Its involvement in the cholinergic anti-inflammatory pathway connects ACHE with a possible marker of low-grade systemic inflammation in obesity, hypertension, coronary heart disease, and AD. Alternative splicing produces three isoforms: an amphipathic form that exists as both monomeric and mutimeric forms, a soluble-monomeric form lacking the cysteine residue near the C-terminus, and a GPI-anchored dimeric form found in the membranes of erythrocytes. The recombinant mouse ACHE (rmACHE) was expressed as the amphipathic form that consists of soluble monomer and mutimeric forms.
Applications: | Func |
Source: | CHO |
Accession #: | P22303 |
Applications: | EnzAct |
Reactivity: | Human, Mouse, Rat |
Details: | Rabbit IgG Polyclonal |
Applications: | IHC, WB, ICC/IF |
Reactivity: | Human, Mouse, Rat |
Details: | Goat IgG Polyclonal |
Applications: | IHC, WB, ELISA, ICC/IF, Flow |
Assay Range: | 250 - 16,000 pg/mL |
Applications: | ELISA |
Reactivity: | Human |
Details: | Sheep IgG Polyclonal |
Applications: | IHC |
Reactivity: | Human |
Details: | Mouse IgG1 Monoclonal Clone #872044 |
Applications: | IHC |
Recombinant Monoclonal Antibody
Reactivity: | Mouse, Rat |
Details: | Rabbit IgG Monoclonal Clone #HL1102 |
Applications: | IHC, WB |
Source: | NS0 |
Accession #: | P21836 |
Applications: | EnzAct |
Applications: | ELISA |
Applications: | Func |
Reactivity: | Human, Bovine |
Details: | Mouse IgG1 kappa Monoclonal Clone #4E11 |
Applications: | IHC, WB, ELISA |
Reactivity: | Bovine |
Details: | Goat IgG Polyclonal |
Applications: | WB, ELISA, IP |
Applications: | WB |
Applications: | ELISA |
Applications: | WB |
Applications: | ELISA |
Applications: | WB |
Applications: | ELISA |
Reactivity: | Human |
Details: | Rabbit IgG Polyclonal |
Applications: | ICC/IF |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #12B4 |
Applications: | WB, ELISA |
Applications: | Func |
Applications: | AC |
Applications: | Func |
Reactivity: | Bovine |
Details: | Goat IgG Polyclonal |
Applications: | WB, ELISA, IP |