### RPS23P10 Gene Overview

- **Gene Symbol**: RPS23P10
- **Type**: Pseudogene
- **Location**: This gene is located on chromosome **21** in humans.

### Associated Genes
While specific associations might not be detailed in the NCBI or UniProt summaries, generally, pseudogenes like RPS23P10 may be associated with other ribosomal protein genes or genes involved in protein synthesis. Some related genes can include:
- **RPS23**: The functional ribosomal protein gene from which RPS23P10 is derived.
- Other ribosomal protein genes (e.g., RPLs, RPSs), although their direct associations might vary.

### Aging and Age-Related Diseases
Currently, there is limited direct evidence linking RPS23P10 with aging or age-related diseases. However, as a pseudogene of a ribosomal protein, it could potentially play a role in translational regulation or gene expression that might indirectly affect aging processes. Pseudogenes often have regulatory functions, which may influence oncogenesis or cellular senescence when their expression is altered.

### Drug Interactions
There are no well-documented drugs or drug classes that specifically interact with RPS23P10, given that it is characterized as a pseudogene. However, the underlying proteins of related functional genes (like RPS23) may be of interest for drug design that targets ribosomal functions.

### Pathways and Biological Processes
Pseudogene RPS23P10 does not have well-defined involvement in specific biological pathways due to its status as a non-functional counterpart. However, ribosomal protein genes are typically involved in:
- **Ribosome Biogenesis**
- **Translation**
- **Cell Growth and Proliferation**

Transcripts from pseudogenes can sometimes be co-opted into regulatory roles, which may mean that RPS23P10 might have undetermined effects on these pathways in the context of gene expression networks.

### Summary
RPS23P10 is a pseudogene related to the ribosomal protein RPS23, situated on chromosome 21. There is no direct evidence linking it to specific aging processes or drug interactions, and its role in biological pathways remains largely speculative due to its pseudogenic status. Further research may shed light on its potential roles, particularly in gene regulation or association with diseases.