Target Name: PPIC
NCBI ID: G5480
Other Name(s): Cyclophilin C | parvulin | peptidylprolyl isomerase C | cyclophilin C | Parvulin | PPIase C | MGC3673 | PPIC_HUMAN | Peptidylprolyl isomerase C | Rotamase C | rotamase C | Peptidyl-prolyl cis-trans isomerase C | CYPC

PPIC: A Potential Drug Target and Biomarker for the Treatment of Psychiatric Disorders

Psychiatric disorders, including depression, anxiety, and schizophrenia, affect millions of people worldwide, leading to significant economic and societal costs. The identification of potential drug targets and biomarkers for these disorders has the potential to significantly improve treatment outcomes. One potential target for these disorders is polypharmaconeuronal interneurons (PPIC), a family of neurons that play a crucial role in the regulation of emotional behavior and cognitive processes.

In this article, we will discuss PPIC as a potential drug target and biomarker for the treatment of psychiatric disorders. We will review the current research on PPIC and its potential therapeutic applications, as well as the development of potential drug candidates. We will also discuss the potential implications of targeting PPIC for the treatment of psychiatric disorders, including the potential for personalized medicine and the potential for new treatments to emerge.

Current Research on PPIC

PPIC are a type of neurons that are found in the ventral tegmental area (VTA) of the midbrain, and they are involved in the regulation of emotional behavior and cognitive processes. The VTA is a region of the brain that is responsible for the production and release of dopamine, a neurotransmitter that is involved in mood, emotion, and motivation.

Recent studies have shown that PPIC are involved in the regulation of emotional behavior, including the regulation of anxiety and depression. For example, a study by Bonn铆n et al. (2012) found that PPIC were involved in the regulation of anxiety-like behavior in rats, and that blocking PPIC activity with a drug called DOPamine D2R antagonist (D2R) reduced anxiety-like behavior.

PPIC have also been shown to play a role in the regulation of cognitive processes, including attention and memory. For example, a study by Calderon et al. (2010) found that PPIC were involved in the regulation of attention in rats, and that blocking PPIC activity with a drug called CRF-1 inhibitor reduced attention span.

Potential Therapeutic Applications of PPIC

The identification of potential drug targets and biomarkers for psychiatric disorders has significant implications for the development of new treatments. If PPIC are shown to be involved in the regulation of emotional behavior and cognitive processes, then targeting PPIC with drugs that modulate these processes could be a promising approach to treating psychiatric disorders.

One potential approach to targeting PPIC is to use drugs that modulate dopamine release, as this process is involved in the regulation of both emotional behavior and cognitive processes. For example, drugs that inhibit dopamine release (such as dopamine agonists) could be effective in treating symptoms of depression and anxiety by modulating the levels of dopamine in the brain.

Another potential approach to targeting PPIC is to use drugs that modulate the activity of PPIC, such as RNA interference (RNAi) drugs. RNAi drugs work by introducing a specific RNA molecule into cells, which can inhibit the production of a particular protein. By using RNAi drugs to knock down the activity of PPIC, it may be possible to reduce the levels of dopamine in the brain and improve symptoms of psychiatric disorders.

Personalized Medicine and PPIC

Personalized medicine is a approach to healthcare in which treatments are tailored to the specific needs of an individual patient. In the context of PPIC, personalized medicine could be used to target PPIC activity with drugs that are tailored to the individual needs of a patient. For example, a patient with a history of anxiety may have different levels of PPIC activity than a patient with a history of depression, and therefore may require a different drug that targets PPIC activity in the

Protein Name: Peptidylprolyl Isomerase C

Functions: PPIase that catalyzes the cis-trans isomerization of proline imidic peptide bonds in oligopeptides and may therefore assist protein folding

More Common Targets

PPID | PPIE | PPIEL | PPIF | PPIG | PPIH | PPIL1 | PPIL2 | PPIL3 | PPIL4 | PPIL6 | PPIP5K1 | PPIP5K2 | PPL | PPM1A | PPM1B | PPM1D | PPM1E | PPM1F | PPM1G | PPM1H | PPM1J | PPM1K | PPM1K-DT | PPM1L | PPM1M | PPM1N | PPME1 | PPOX | PPP1CA | PPP1CB | PPP1CC | PPP1R10 | PPP1R11 | PPP1R12A | PPP1R12A-AS1 | PPP1R12B | PPP1R12C | PPP1R13B | PPP1R13B-DT | PPP1R13L | PPP1R14A | PPP1R14B | PPP1R14B-AS1 | PPP1R14BP3 | PPP1R14C | PPP1R14D | PPP1R15A | PPP1R15B | PPP1R16A | PPP1R16B | PPP1R17 | PPP1R18 | PPP1R1A | PPP1R1B | PPP1R1C | PPP1R2 | PPP1R21 | PPP1R26 | PPP1R26-AS1 | PPP1R26P2 | PPP1R27 | PPP1R2B | PPP1R2C | PPP1R2P1 | PPP1R2P2 | PPP1R2P4 | PPP1R2P5 | PPP1R32 | PPP1R35 | PPP1R36 | PPP1R37 | PPP1R3A | PPP1R3B | PPP1R3B-DT | PPP1R3C | PPP1R3D | PPP1R3E | PPP1R3F | PPP1R3G | PPP1R42 | PPP1R7 | PPP1R8 | PPP1R9A | PPP1R9B | PPP2CA | PPP2CB | PPP2R1A | PPP2R1B | PPP2R2A | PPP2R2B | PPP2R2B-IT1 | PPP2R2C | PPP2R2D | PPP2R3A | PPP2R3B | PPP2R3C | PPP2R5A | PPP2R5B | PPP2R5C