The ZNF155 gene (Zinc Finger Protein 155) encodes a transcription factor that plays a role in the regulatory network governing gene expression. Below is an overview of additional information related to the ZNF155 gene, including associated genes, aging-related implications, drug interactions, and biological pathways.

### 1. Associated Genes
While the NCBI and UniProt summaries did not specify specific genes associated with ZNF155, some studies suggest potential interactions with genes involved in transcription regulation and cell cycle control. These might include:

- **TP53** (Tumor Protein p53): An important tumor suppressor involved in the regulation of the cell cycle and maintenance of genomic stability.
- **MYC** (Myelocytomatosis Oncogene): A proto-oncogene that regulates various cellular processes including cell growth and proliferation.
- **CCND1** (Cyclin D1), which is involved in cell cycle regulation.

### 2. Aging and Age-Related Diseases
There is limited direct evidence linking ZNF155 specifically to aging or age-related diseases in publicly available databases as of the last update. However, transcription factors like ZNF155 can play a role in processes related to:
- Cellular senescence
- Age-related decline in tissue function
- Cancer (where transcriptional dysregulation is common)

Research into the role of ZNF155 in cellular processes affecting aging would be valuable to understand its broader implications in age-associated disorders.

### 3. Drug Interactions
Currently, detailed data about specific drugs or drug classes directly interacting with ZNF155 is limited. However, in the context of transcription factors, general classes of compounds that may influence transcription factor activity include:
- **HDAC inhibitors**: These can affect histone acetylation and transcriptional regulation.
- **Anticancer agents**: Many act on transcription factors by inducing or repressing their function indirectly.
- **Corticosteroids**: Known to interact with various transcription factors that regulate inflammatory responses.

Searching databases directly for drug interactions, especially in the context of specific conditions like cancer, may provide additional insight.

### 4. Pathways and Biological Processes
ZNF155 is predicted to be involved in multiple biological processes and pathways, such as:
- **Regulation of transcription by RNA polymerase II**: As indicated in the summaries, it likely plays a role in regulating genes transcribed by RNA polymerase II.
- **Response to stimuli**: Transcription factors often regulate genes involved in cellular responses to various stimuli, such as stress or developmental signals.
- **Developmental biology**: Many ZNF proteins are implicated in developmental processes and organogenesis.

Additionally, ZNF155 can be associated with:
- **Cell cycle regulation**: Through its interactions with other factors, it may influence cell proliferation rates.
- **DNA damage response**: Its role as a transcription factor could affect gene expression profiles during cellular responses to DNA damage.

### Conclusion
Overall, ZNF155 is a transcription factor that appears to play a role in fundamental cellular processes, but the precise implications of this gene in aging, disease, and pharmacological interactions need further research for a clearer picture. Its involvement in transcription regulation highlights its potential importance in both normal physiology and disease contexts.