Target Name: RPLP1
NCBI ID: G6176
Other Name(s): large ribosomal subunit protein P1 | Acidic ribosomal phosphoprotein P1 | LP1 | 60S acidic ribosomal protein P1 (isoform 1) | Ribosomal protein lateral stalk subunit P1, transcript variant 1 | MGC5215 | FLJ27448 | Ribosomal protein P1 | RPLP1 variant 1 | RLA1_HUMAN | ribosomal protein, large, P1 | acidic ribosomal phosphoprotein P1 | P1 | Large ribosomal subunit protein P1 | ribosomal protein lateral stalk subunit P1 | 60S acidic ribosomal protein P1 | RPP1

RPLP1: A Key Protein in Translation

Ribosomal subunit protein P1 (RPLP1) is a protein that plays a critical role in the process of translation of RNA into proteins. It is a large protein, with a molecular weight of approximately 21 kDa, and is found in most eukaryotic cells. RPLP1 is a key component of the ribosome, the small organelle that synthesizes proteins in the cell.

One of the unique features of RPLP1 is its structure. It consists of a domain that is similar to that of other ribosomal proteins, known as the alpha/beta structure, and a carboxy-terminal domain that is unique to RPLP1. The carboxy-terminal domain contains a conserved acidic and basic region, as well as a putative N-endoprotein-associated domain (N-end) and a C-endoprotein-associated domain (C-end).

The function of RPLP1 is to interact with other proteins, including the translating machinery and the ribosome itself. It does this by forming a complex with the ribosome, where it is involved in the recruitment of RNA and the initiation of translation. RPLP1 is also involved in regulating the activity of the ribosome, by interacting with the alpha/beta structure and the N-end and C-end domains.

Due to its role in translation, RPLP1 is a potential drug target. One approach to targeting RPLP1 is to inhibit its activity by introducing mutations in the carboxy-terminal domain. This can disrupt its ability to interact with the ribosome and prevent it from functioning as a drug.

Another approach to targeting RPLP1 is to use small molecules, such as those that can modulate the activity of the ribosome. One class of small molecules that have been shown to be effective in this regard are called inhibitors of protein-protein interactions (IPIs). These molecules work by binding to a specific protein-protein interaction, disrupting it and preventing the proteins from interacting with each other.

Another approach to targeting RPLP1 is to use antibodies that recognize and label it. This can be a useful way to study the behavior of RPLP1 in the cell, and may also be a useful way to diagnose diseases that are caused by changes in RPLP1 levels.

In conclusion, RPLP1 is a protein that plays a critical role in the process of translation. It is a large protein with unique structures that interact with other proteins, including the ribosome. As a result, it is a potential drug target and a useful biomarker for a variety of diseases.

Protein Name: Ribosomal Protein Lateral Stalk Subunit P1

Functions: Plays an important role in the elongation step of protein synthesis

More Common Targets

RPLP1P4 | RPLP1P6 | RPLP1P7 | RPLP2 | RPLP2P3 | RPN1 | RPN2 | RPP14 | RPP21 | RPP25 | RPP25L | RPP30 | RPP38 | RPP38-DT | RPP40 | RPPH1 | RPRD1A | RPRD1B | RPRD2 | RPRM | RPRML | RPS10 | RPS10-NUDT3 | RPS10P10 | RPS10P13 | RPS10P19 | RPS10P3 | RPS10P5 | RPS10P7 | RPS10P9 | RPS11 | RPS11P5 | RPS12 | RPS12P10 | RPS12P22 | RPS12P23 | RPS12P24 | RPS12P25 | RPS12P28 | RPS12P29 | RPS12P3 | RPS12P4 | RPS13 | RPS13P2 | RPS13P8 | RPS14 | RPS14P10 | RPS14P3 | RPS14P8 | RPS15 | RPS15A | RPS15AP19 | RPS15AP34 | RPS15P2 | RPS15P4 | RPS16 | RPS16P1 | RPS16P2 | RPS16P5 | RPS16P9 | RPS17 | RPS17P1 | RPS17P10 | RPS17P16 | RPS17P2 | RPS17P5 | RPS17P6 | RPS18 | RPS18P9 | RPS19 | RPS19BP1 | RPS2 | RPS20 | RPS20P13 | RPS20P35 | RPS20P4 | RPS21 | RPS23 | RPS23P10 | RPS23P8 | RPS24 | RPS24P15 | RPS24P3 | RPS25 | RPS25P10 | RPS25P6 | RPS26 | RPS26P10 | RPS26P11 | RPS26P15 | RPS26P2 | RPS26P21 | RPS26P25 | RPS26P30 | RPS26P31 | RPS26P35 | RPS26P47 | RPS26P50 | RPS26P53 | RPS26P6