Transfected Stable Cell Lines
Reliable | High-Performance | Wide Rage
Precision reporter, kinase, immune receptor, biosimilar, Cas9, and knockout stable cell lines for diverse applications.
| Cat.No. | Product Name | Price |
|---|---|---|
| CSC-RI0110 | Human KCNN3 Stable Cell Line-CHO-K1 | Inquiry |
| CSC-DC007997 | Panoply™ Human KCNN3 Knockdown Stable Cell Line | Inquiry |
| CSC-SC007997 | Panoply™ Human KCNN3 Over-expressing Stable Cell Line | Inquiry |
| CSC-RI0110-2 | Human KCNN3 Stable Cell Line - HEK293 | Inquiry |
| Cat.No. | Product Name | Price |
|---|---|---|
| AD08454Z | Human KCNN3 adenoviral particles | Inquiry |
| LV16039L | human KCNN3 (NM_002249) lentivirus particles | Inquiry |
| LV16040L | human KCNN3 (NM_170782) lentivirus particles | Inquiry |
| LV16041L | human KCNN3 (NM_001204087) lentivirus particles | Inquiry |
| Cat.No. | Product Name | Price |
|---|---|---|
| SHH323611 | shRNA set against Human KCNN3 (NM_002249.5) | Inquiry |
| SHH323615 | shRNA set against Mouse KCNN3 (NM_080466.2) | Inquiry |
| SHL191172 | shRNA set against Mouse Kcnn3(NM_080466.2) | Inquiry |
| SHL191190 | shRNA set against Rat Kcnn3(NM_019315.2) | Inquiry |
| Cat.No. | Product Name | Price |
|---|---|---|
| CDFR011406 | Rat Kcnn3 cDNA Clone(NM_019315.2) | Inquiry |
| MiUTR1M-06259 | KCNN3 miRNA 3'UTR clone | Inquiry |
| MiUTR1R-02842 | KCNN3 miRNA 3'UTR clone | Inquiry |
| MiUTR3H-05509 | KCNN3 miRNA 3'UTR clone | Inquiry |
| MiUTR3H-05510 | KCNN3 miRNA 3'UTR clone | Inquiry |
| CDCB189835 | Rabbit KCNN3 ORF clone (XM_008264370.1) | Inquiry |
| CDCL123281 | Mouse KCNN3 ORF clone (NM_001204087.1) | Inquiry |
| CDCL151216 | Mouse Kcnn3 ORF clone (NM_080466.2) | Inquiry |
| CDCR378608 | Rat Kcnn3 ORF Clone(NM_019315.2) | Inquiry |
| CDCS409601 | Human KCNN3 ORF Clone (BC042147) | Inquiry |
Recent Research
KCNN3 gene encodes the small conductance Ca2+-activated K+ (SK) channel 3, also known as SK3 or KCa2.3, containing six transmembrane segments. The gene family of SK channels is composed of 4 members (KCNN1-KCNN4) of which the first three are most alike. Four subunits form a functional potassium channel, and calcium sensitivity is achieved by binding to C-terminal calmodulin.
KCNN3 is responsible for IKCacurrents and is activated by intracellular Ca2+ ions. The up-regulation of KCNN3 contributes to an increase in IKCa current, modulates cardiac repolarization and it has been reported to have an important role in ventricular tachycardia. Some reports have shown a protective role when the IKCa current is blockedor a pro-arrhythmic role when the gene is over-expressed. It has a negative effect of this current. Besides, other reports have shown that a blockage of this current promotes the development of ventricular arrhythmias.
KCNN3 is involved in the regulation of vascular tension and blood pressure. Activation of the potassium channel results in hyperpolarization of the endothelial cell which subsequently results inhyperpolarization of the adjacent muscle cell and dilatation of the vessel. One report has shown that conditional repression of the KCNN3 channel results in increased blood pressure in rat mesenteric arteries. Cells lacking KCNN3 showed poor response to the vasodilator acetylcholine and the vascular wall shear stress.
In addition, the SK3 channel has been demonstrated to form heteromultimeric complexes with the KCNN3 in vitro, and blockade of the SK2/3 complex has also been shown to prolong the action potential duration (APD) in isolated cardiomyocytes. In addition, SK3 channel overexpression is associated with sudden death and increases susceptibility to aspectrum in arrhythmia syndrome, including heart block and bradyarrhythmias, AF, and slowed ventricular conduction.Some reports have shown that the protein levels of SK3 were down-regulated by 46% in permanent AF. More importantly, in vivo electrophysiological studies found that the atrial effective refractory periods were significantly shortened in SK3 mutant mice compared with the WT animals, and atrial arrhythmias, mainly AF, were induced in adult SK3 mutant animals.
At last, KCNN3 contributes to the development and progression of numerous solid tumors. In melanoma cells, up-regulation of KCNN3 enhances cell motility by hyperpolarizing the cell membrane potential; in breast cancer cells, KCNN3 is a mediator of cell migration, and together with P2X purinoceptor 7, contributes to cysteine cathepsin-dependent cell invasiveness; and in colon cancer, KCNN3, together with short transient receptor potential channel 1 (TRPC1) and calcium release-activated calcium channel protein 1 (orai-1), regulates store operated calcium entry (SOCE)-dependent cell migration. Furthermore, KCNN3 is up-regulated by a 16-fold change in bortezomib-resistant BN myeloma cells, which suggests that its expression is associated with drug resistance.
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