Date published: 2026-2-14

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ACP1 Activators

The chemical class designated as ACP1 Activators comprises a diverse range of compounds that exhibit the potential to modulate the activity of Acid Phosphatase 1 (ACP1), a protein encoded by the ACP1 gene. The activation of ACP1 involves intricate mechanisms, with these activators primarily categorized into two groups based on their mode of action. Activators of this class function as potential ACP1 activators by inhibiting its phosphatase activity. By disrupting phosphate transfer reactions, these chemicals may enhance ACP1's involvement in dephosphorylation processes, thereby influencing downstream signaling cascades and cellular events.

ACP1 Activators operate by potentially modulating the redox state of ACP1. These compounds impact the thiol groups within ACP1, suggesting a role in the regulation of its enzymatic activity. The potential redox modulation by these activators could contribute to the intricate balance of cellular signaling and molecular interactions in which ACP1 is involved. Furthermore, activators showcase an indirect influence on ACP1. Through their interactions with growth factors and receptors, activators may modulate ACP1 activity by influencing cellular signaling pathways. Lastly, activators may disrupt dephosphorylation processes, potentially intensifying ACP1's engagement in cellular signaling. In summary, the ACP1 Activators class represents a dynamic array of molecules that hold promise for unraveling the regulatory intricacies of ACP1 in cellular processes through both direct modulation of phosphatase activity and potential redox-dependent mechanisms.

SEE ALSO...

Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Sodium Orthovanadate

13721-39-6sc-3540
sc-3540B
sc-3540A
5 g
10 g
50 g
$49.00
$57.00
$187.00
142
(4)

Sodium orthovanadate can potentially activate ACP1 by inhibiting its phosphatase activity. By preventing dephosphorylation, it may enhance ACP1's involvement in signaling cascades.

Suramin sodium

129-46-4sc-507209
sc-507209F
sc-507209A
sc-507209B
sc-507209C
sc-507209D
sc-507209E
50 mg
100 mg
250 mg
1 g
10 g
25 g
50 g
$152.00
$214.00
$728.00
$2601.00
$10965.00
$21838.00
$41096.00
5
(1)

Suramin, a polysulfonated naphthylurea, may activate ACP1 by influencing cellular signaling pathways. Its interactions with growth factors and receptors can potentially modulate ACP1 activity.

Sodium Fluoride

7681-49-4sc-24988A
sc-24988
sc-24988B
5 g
100 g
500 g
$40.00
$46.00
$100.00
26
(4)

Sodium fluoride can activate ACP1 by inhibiting its phosphatase activity. Its role in disrupting phosphate transfer reactions may contribute to the regulation of ACP1's enzymatic function.

Okadaic Acid

78111-17-8sc-3513
sc-3513A
sc-3513B
25 µg
100 µg
1 mg
$291.00
$530.00
$1800.00
78
(4)

Okadaic acid can potentially activate ACP1 by inhibiting its phosphatase activity. Its role in perturbing protein dephosphorylation processes may enhance ACP1's involvement in signaling events.

N-Ethylmaleimide

128-53-0sc-202719A
sc-202719
sc-202719B
sc-202719C
sc-202719D
1 g
5 g
25 g
100 g
250 g
$22.00
$69.00
$214.00
$796.00
$1918.00
19
(1)

N-Ethylmaleimide can potentially activate ACP1 by inhibiting its phosphatase activity. Its action in blocking thiol groups may contribute to the regulation of ACP1's enzymatic function.

Sodium metavanadate

13718-26-8sc-251034
sc-251034A
5 g
25 g
$32.00
$84.00
3
(1)

Sodium metavanadate can potentially activate ACP1 by inhibiting its phosphatase activity. Its interference with phosphate transfer reactions may influence ACP1's role in cellular signaling.

L-Cysteine

52-90-4sc-286072
sc-286072A
sc-286072B
sc-286072C
sc-286072D
25 g
100 g
500 g
5 kg
10 kg
$51.00
$112.00
$449.00
$1151.00
$2178.00
1
(1)

Cysteine can potentially activate ACP1 by influencing its redox state. As a thiol-containing amino acid, cysteine may modulate ACP1's enzymatic activity through interactions with thiol groups.

Calyculin A

101932-71-2sc-24000
sc-24000A
10 µg
100 µg
$163.00
$800.00
59
(3)

Calyculin A can potentially activate ACP1 by inhibiting its phosphatase activity. Its role in disrupting dephosphorylation processes may enhance ACP1's participation in cellular signaling.