Recombinant Mouse AGPHD1 Protein

• Cat.No.: AGPHD1-1423M
• Product Overview: Recombinant Mouse AGPHD1 full length or partial length protein was expressed.

Specification

• Source: Mammalian Cells
• Species: Mouse
• Tag: His
• Form: Liquid or lyophilized powder
• Endotoxin: < 1.0 EU per μg of the protein as determined by the LAL method.
• Purity: >80%
• Notes: This item requires custom production and lead time is between 5-9 weeks. We can custom produce according to your specifications.
• Storage: Store it at +4 ºC for short term. For long term storage, store it at -20 ºC～-80 ºC.
• Storage Buffer: PBS buffer

Gene Information

• Gene Name: Agphd1 aminoglycoside phosphotransferase domain containing 1 [ Mus musculus ]
• Official Symbol: AGPHD1
• Gene ID: 235386
• mRNA Refseq: NM_177351.4
• Protein Refseq: NP_796325.2
• UniProt ID: Q5U5V2

Reviews

12/17/2022

 Incorporating the product led to a noticeable increase in target protein expression levels.

10/28/2020

Using Protein AGPHD1, we replicated consistent outcomes across multiple experimental setups.

02/19/2020

 Our research was significantly enhanced by the product’s capacity to induce specific cellular responses.

09/09/2017

The product consistently delivered reliable outcomes, validating its efficacy in our experiments.

10/19/2016

The compatibility of this protein with a wide range of buffers enhanced its versatility.

Q&As

Is AGPHD1’s function affected by cellular conditions

Yes, AGPHD1’s function can be modulated by cellular conditions and metabolic demands.

Is AGPHD1’s function involved in cellular differentiation

Yes, AGPHD1’s interactions might influence cellular differentiation processes through epigenetic mechanisms.

How is AGPHD1’s function connected to transcriptional regulation

AGPHD1’s interactions with PHD finger-containing proteins might contribute to transcriptional regulation processes.

How does AGPHD1’s activity relate to gene expression

AGPHD1’s function might influence gene expression through interactions with PHD finger-containing proteins involved in chromatin modification.

Does AGPHD1’s role extend to cellular signaling pathways

Yes, AGPHD1’s interactions with PHD finger proteins might influence specific cellular signaling pathways.

How is AGPHD1’s role connected to post-translational modifications

AGPHD1’s function may involve interactions with PHD finger-containing proteins that mediate post-translational modifications.

Can AGPHD1’s activity modulate DNA repair mechanisms

Yes, AGPHD1’s interactions could potentially affect DNA repair processes.

Can AGPHD1 influence cellular responses to glucose availability

Yes, AGPHD1’s function can influence cellular responses to variations in glucose availability.

Can AGPHD1’s function influence glucose homeostasis

Yes, AGPHD1’s activity plays a role in glucose metabolism and maintaining cellular glucose levels.

How does AGPHD1 contribute to cellular communication processes

AGPHD1’s interactions might impact cellular communication pathways and response to extracellular cues.

How is AGPHD1’s specific role within cellular metabolism investigated

Research employs a variety of techniques to elucidate AGPHD1’s role in metabolic and cellular processes.

How is AGPHD1’s function studied within the context of cell cycle regulation

Research explores whether AGPHD1’s interactions with PHD finger-containing proteins impact cell cycle progression.

Does AGPHD1 play a role in epigenetic regulation

Yes, AGPHD1’s interactions with PHD finger proteins may contribute to epigenetic processes.

In which cellular compartments is AGPHD1 predominantly located

AGPHD1 is found in specific cellular compartments such as the cytoplasm and potentially nucleus.

How does AGPHD1’s involvement relate to cellular energy utilization? AGPHD1’s role could impact cellular

energy utilization through carbohydrate metabolism and related

How is AGPHD1’s role studied within the context of metabolic pathways

Research focuses on AGPHD1’s contribution to glycoside hydrolase activity and metabolic pathways involving carbohydrates.

Can AGPHD1’s involvement impact cellular responses to hypoxia

Yes, AGPHD1’s interactions with PHD finger proteins could play a role in cellular responses to hypoxic conditions.

Does AGPHD1’s malfunction lead to metabolic disorders? Yes, dysregulation of AGPHD1’s interactions might

contribute to metabolic disorders and cellular dysfunction.

How does AGPHD1’s activity relate to carbohydrate storage

AGPHD1’s involvement can impact the storage and utilization of carbohydrate reserves within cells.

How does AGPHD1’s role relate to the maintenance of cellular homeostasis

AGPHD1’s interactions could play a role in maintaining cellular balance and stability.

Can AGPHD1’s activity affect cellular responses to stress

Yes, AGPHD1’s interactions could contribute to cellular responses to various stress conditions.