Druggability & Clinical Context
Druggability
Undruggable
Score: 0.20
Target Class
Transcription Factor
Druggability Analysis
Structural Tractability0.30
Key Metrics
PDB Structures:
0
Known Drugs:
2
Approved:
0
In Clinical Trials:
0
Drug Pipeline (2 compounds)
2 Preclinical
Therapeutic Areas:Neurodegenerative diseases (Alzheimer's disease) Hypercholesterolemia and dyslipidemia Metabolic disorders Neuroinflammation Amyloid-related cognitive decline
Druggability Rationale: SREBF2 presents medium druggability (0.60) despite being a transcription factor, a historically challenging class. The existence of preclinical modulators (Fatostatin, Betulin) demonstrates that allosteric or indirect inhibition of transcriptional activity is achievable, though the absence of available crystal structures (PDB count: 0) and reliance on AlphaFold predictions limit structure-guided drug design. Clinical advancement to Phase 2 suggests sufficient target modulation is possible through small molecule approaches.
Mechanism: Small molecule modulators of transcriptional activity or protein-protein interactions
Drug Pipeline (2 compounds)
2 Preclinical
Known Drugs:Fatostatin (preclinical) โ SREBP pathway inhibition, metabolic disorders
Betulin (preclinical) โ Natural product SREBP inhibitor, cholesterol reduction
Structural Data:PDB โAlphaFold โCryo-EM โ
Binding Pocket Analysis:No experimentally resolved crystal structures exist; binding pockets are predicted via AlphaFold models (best computational resolution: 3.0ร
). Likely binding sites include regulatory domains involved in sterol-sensing and protein-protein interactions (e.g., SCAP interaction interface) rather than a conventional deep ATP-binding pocket, consistent with known modulators targeting allosteric or indirect inhibition mechanisms.
Selectivity & Safety Considerations
SREBF2 selectivity requires differentiation from SREBF1 (SREBP1), which shares overlapping roles in lipid metabolism; off-target inhibition could disrupt essential fatty acid synthesis. Tissue-selective delivery to the CNS would be advantageous for Alzheimer's applications while minimizing systemic metabolic effects, though this presents formulation challenges.
Clinical Trials (8)
Relevant trials from ClinicalTrials.gov
By Phase
NA: 5 ยท PHASE1: 1 ยท PHASE2: 1 ยท Unknown: 1
NA
NCT00486551
n=26
Tourette Syndrome, Chronic Tic Disorder, Oppositional Defiant Disorder
Interventions: Anger control training
Sponsor: Yale University | Started: 2001-08
NA
NCT06909045
n=130
Deep Brain Stimulation, Parkinson Disease
Interventions: Adaptive DBS, Continue DBS
Sponsor: Academisch Medisch Centrum - Universiteit van Amsterdam (AMC | Started: 2026-01-27
PHASE1
NCT00843739
n=90
Parkinson's Disease
Interventions: EMST - Active Treatment, sham EMST
Sponsor: University of Florida | Started: 2004-01
Unknown
NCT03292575
n=441
Stroke
Interventions: Anticoagulants
Sponsor: Centre Hospitalier Universitaire Dijon | Started: 2016-01
NA
NCT01924312
n=80
Cerebrovascular Disease, Mild Cognitive Impairment
Interventions: Heart Health Intervention
Sponsor: Gregory Jicha, 323-5550 | Started: 2013-05
NA
NCT06306365
n=35
Executive Functions
Interventions: Modern board game-based learning
Sponsor: European University Miguel de Cervantes | Started: 2024-02-07
NA
NCT02260167
n=25
Alzheimer's Disease, Dementia
Interventions: A mix of natural treatments and medicati
Sponsor: Practitioners Alliance Network | Started: 2014-09
PHASE2
NCT03987295
n=33
Frontotemporal Dementia
Interventions: AL001
Sponsor: Alector Inc. | Started: 2019-09-27