Appointment: Associate Professor (Former)

Research topics:

• Proteomics
• Biomedical research
• Translational research

Featured Dataverses

In order to use this feature you must have at least one published dataverse.

Publish Dataverse

Are you sure you want to publish your dataverse? Once you do so it must remain published.

Publish Dataverse

This dataverse cannot be published because the dataverse it is in has not been published.

Delete Dataverse

Are you sure you want to delete your dataverse? You cannot undelete this dataverse.

Advanced Search

121 to 130 of 135 Results
141227_Park_Hx_SILAC_18_A.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 454.5 MB - MD5: 2916674e5aaf7214d78f908eeed7e434
141227_Park_Hx_SILAC_18_B.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 454.1 MB - MD5: 7d75a12b6891e3834b1e863658786e16
141227_Park_Hx_SILAC_18_C.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 448.7 MB - MD5: b35ebb3fb4833d87c62b212ca84357b0
141227_Park_Hx_SILAC_19_A.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 437.7 MB - MD5: 301a2b482446df5bcfaca97e02d90c47
141227_Park_Hx_SILAC_19_B.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 441.0 MB - MD5: 12d385519a8cc12663f63d7b4e06207a
141227_Park_Hx_SILAC_19_C.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 440.6 MB - MD5: 5ef1f8e564962c794d2d8921d498d361
141227_Park_Hx_SILAC_20_A.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 440.1 MB - MD5: 0e253a01b1cc2146f89fc4d549ed369c
141227_Park_Hx_SILAC_20_B.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 438.7 MB - MD5: b8b3bafdfcfddcbeba6fe2b2dc2c8882
141227_Park_Hx_SILAC_20_C.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 437.2 MB - MD5: 004ca12ebd344f93ebb97062c96694ad
141227_Park_Hx_SILAC_21_A.raw
Jul 24, 2024 - Pulsed SILAC-based proteomic analysis unveils hypoxia- and serum starvation-induced de novo protein synthesis with PHD finger protein 14 (PHF14) as a hypoxia sensitive epigenetic regulator in cell cycle progression
Unknown - 418.6 MB - MD5: 44450a4f0e3f1fb0aed33acda55ff3c7
Add Data

Log in to create a dataverse or add a dataset.

Log In
Share Dataverse

Share this dataverse on your favorite social media networks.

Link Dataverse
Reset Modifications

Are you sure you want to reset the selected metadata fields? If you do this, any customizations (hidden, required, optional) you have done will no longer appear.