General Information of Drug Transporter (DT)
DT ID DTD0270 Transporter Info
Gene Name SLC30A10
Transporter Name Zinc transporter 10
Gene ID
55532
UniProt ID
Q6XR72
Post-Translational Modification of This DT
Overview of SLC30A10 Modification Sites with Functional and Structural Information
Sequence
PTM type
X-Phosphorylation X: Amino Acid

Phosphorylation

  Serine

          9 PTM Phenomena Related to This Residue Click to Show/Hide the Full List

  PTM Phenomenon 1

Have the potential to influence SLC30A10 [1]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

187

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 187 has the potential to affect its expression or activity.

  PTM Phenomenon 2

Have the potential to influence SLC30A10 [1] , [2]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

189

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 189 has the potential to affect its expression or activity.

  PTM Phenomenon 3

Have the potential to influence SLC30A10 [3]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

233

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 233 has the potential to affect its expression or activity.

  PTM Phenomenon 4

Have the potential to influence SLC30A10 [3]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

252

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 252 has the potential to affect its expression or activity.

  PTM Phenomenon 5

Have the potential to influence SLC30A10 [4]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

321

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 321 has the potential to affect its expression or activity.

  PTM Phenomenon 6

Have the potential to influence SLC30A10 [5] , [6]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

402

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 402 has the potential to affect its expression or activity.

  PTM Phenomenon 7

Have the potential to influence SLC30A10 [7]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

406

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 406 has the potential to affect its expression or activity.

  PTM Phenomenon 8

Have the potential to influence SLC30A10 [3]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

458

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 458 has the potential to affect its expression or activity.

  PTM Phenomenon 9

Have the potential to influence SLC30A10 [3]

Role of PTM

Potential impacts

Modified Residue

Serine

Modified Location

469

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Serine 469 has the potential to affect its expression or activity.

  Threonine

          1 PTM Phenomena Related to This Residue Click to Show/Hide the Full List

  PTM Phenomenon 1

Have the potential to influence SLC30A10 [1]

Role of PTM

Potential impacts

Modified Residue

Threonine

Modified Location

196

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Threonine 196 has the potential to affect its expression or activity.

  Tyrosine

          1 PTM Phenomena Related to This Residue Click to Show/Hide the Full List

  PTM Phenomenon 1

Have the potential to influence SLC30A10 [3]

Role of PTM

Potential impacts

Modified Residue

Tyrosine

Modified Location

263

Experimental Method

Co-Immunoprecipitation

Detailed Description

Phosphorylation at SLC30A10 Tyrosine 263 has the potential to affect its expression or activity.
References
1 Global Analyses of Selective Insulin Resistance in Hepatocytes Caused by Palmitate Lipotoxicity. Mol Cell Proteomics. 2018 May;17(5):836-849.
2 Systematic analysis of protein phosphorylation networks from phosphoproteomic data. Mol Cell Proteomics. 2012 Oct;11(10):1070-83.
3 iTRAQ labeling is superior to mTRAQ for quantitative global proteomics and phosphoproteomics. Mol Cell Proteomics. 2012 Jun;11(6):M111.014423.
4 A strategy for large-scale phosphoproteomics and SRM-based validation of human breast cancer tissue samples. J Proteome Res. 2012 Nov 2;11(11):5311-22.
5 TiO2 with Tandem Fractionation (TAFT): An Approach for Rapid, Deep, Reproducible, and High-Throughput Phosphoproteome Analysis. J Proteome Res. 2018 Jan 5;17(1):710-721.
6 Interrogating the hidden phosphoproteome. Proteomics. 2017 Mar;17(6):10.1002/pmic.201600437.
7 In situ sample processing approach (iSPA) for comprehensive quantitative phosphoproteome analysis. J Proteome Res. 2014 Sep 5;13(9):3896-904.

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