Date published: 2025-9-9

1-800-457-3801

SCBT Portrait Logo
Seach Input

KIFC2 Inhibitors

KIFC2 inhibitors encompass a range of compounds that target the motor protein KIFC2, a member of the kinesin family involved in intracellular transport. These inhibitors are not direct antagonists of the KIFC2 protein itself; instead, they work by modulating the cellular environment and structures upon which KIFC2 operates, primarily microtubules. Microtubules are dynamic structures composed of tubulin subunits, critical for the function of kinesin motor proteins like KIFC2. Inhibitors in this class achieve their effect by either stabilizing or destabilizing microtubules, thereby influencing the movement and transport functions of KIFC2. Stabilization of microtubules occurs through the prevention of tubulin depolymerization, maintaining these structures in a state that is less conducive to the dynamic nature required for KIFC2's optimal function. In contrast, destabilization involves the inhibition of tubulin polymerization, leading to the breakdown of microtubule structures, which are essential for the transport role of KIFC2. The actions of KIFC2 inhibitors on microtubule dynamics bring about a significant impact on the functionality of KIFC2. By altering the stability and integrity of microtubules, these inhibitors can modulate the ability of KIFC2 to transport various cellular cargoes, such as proteins and organelles. This modulation is critical given the role of KIFC2 in neuronal cell transport, where it facilitates the movement of materials along axons and dendrites. The impact of these inhibitors extends to affecting the overall cellular transport mechanisms, influencing processes like axonal transport and dendritic transport. Furthermore, these inhibitors can impact cellular processes that rely on the normal function of KIFC2, including synaptic vesicle transport and the maintenance of neuronal health and connectivity. The effect of KIFC2 inhibitors on microtubule dynamics also has implications for the regulation of cellular shape and movement, as well as the processes of cell division, where microtubule function is paramount. Overall, KIFC2 inhibitors represents a crucial area in the study of cellular transport mechanisms, providing a window into the modulation of motor protein functions through the alteration of cellular structures and dynamics.
Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Vinblastine

865-21-4sc-491749
sc-491749A
sc-491749B
sc-491749C
sc-491749D
10 mg
50 mg
100 mg
500 mg
1 g
$100.00
$230.00
$450.00
$1715.00
$2900.00
4
(0)

Destabilizes microtubules by binding to tubulin, potentially interfering with KIFC2's ability to move cargo along these structures.

Nocodazole

31430-18-9sc-3518B
sc-3518
sc-3518C
sc-3518A
5 mg
10 mg
25 mg
50 mg
$58.00
$83.00
$140.00
$242.00
38
(2)

Disrupts microtubule polymerization, impacting KIFC2's role in cellular transport mechanisms.

Epothilone B, Synthetic

152044-54-7sc-203944
2 mg
$176.00
(0)

Stabilizes microtubules similarly to paclitaxel, affecting KIFC2's interaction with these cellular structures.

Podophyllotoxin

518-28-5sc-204853
100 mg
$82.00
1
(1)

Inhibits tubulin polymerization, disrupting KIFC2's interaction with microtubules and its transport function.

Docetaxel

114977-28-5sc-201436
sc-201436A
sc-201436B
5 mg
25 mg
250 mg
$85.00
$325.00
$1072.00
16
(1)

Promotes microtubule assembly while preventing their depolymerization, affecting KIFC2's motor function.

MCC950 sodium salt

256373-96-3sc-505904
sc-505904A
sc-505904B
sc-505904C
5 mg
10 mg
50 mg
100 mg
$112.00
$194.00
$871.00
$1538.00
3
(0)

Stabilizes microtubules, affecting the dynamics required for KIFC2's motor activity.