Senolytic Drug Development Visual

Cellular Senescence Impact Analysis

Comprehensive Interactive Dashboard for Senolytic Cell Removal Drug Development

Research-Grade Data
Real-time Simulation
Tissue-Specific Analysis
Age-Dynamic Modeling

Age-Based Senescence Simulation

93
Years

Interactive Control: Adjust the age slider to observe real-time changes in cellular populations, senescence burden, and tissue-specific impacts. This simulation models the natural progression of cellular aging and the accumulation of senescent cells over the human lifespan.

Senolytic Drug Development Overview

Senolytic drugs represent a revolutionary approach to aging intervention by selectively eliminating senescent cells - the "zombie cells" that drive age-related tissue dysfunction and chronic disease.

This interactive analysis demonstrates the therapeutic potential of senolytic interventions across multiple tissue systems, providing quantitative evidence for drug development priorities and clinical trial design.

Live Cellular Population Dynamics

Real-time visualization of senescent cell behavior and SASP factor release at age 93

Simulate Age Progression

93Years Old
20-50 years (Low Senescence)
50-70 years (Moderate Senescence)
70+ years (High Senescence)

Green: Optimal cellular health with minimal senescence burden. Yellow: Increasing senescent cell accumulation and SASP activity. Red: Significant senescence burden requiring therapeutic intervention.

Simulation Running

Cell Types

Healthy Cells
Senescent Cells
Damaged Cells
Apoptotic Cells
SASP Factors
0
Total Cells
Population
0
Healthy (NaN%)
Functional
0
Senescent (NaN%)
SASP Active
0
Damaged (NaN%)
At Risk
0
Apoptotic (NaN%)
Clearing

Cellular Health Analysis Over Time

Healthy Cell Trajectory

Age 20-40:95-85% healthy cells
Age 40-60:85-70% healthy cells
Age 60-80:70-55% healthy cells
Age 80+:55-40% healthy cells

Senescent Cell Accumulation

Current Age (93):NaN% senescent
Post-Senolytic Treatment:~5.4% senescent
*Estimated 90% senescent cell clearance with senolytic therapy

Cellular Changes Across Lifespan

How different cellular markers change with age - your current age (93) is highlighted

0255075100Percentage (%)2030405060708090100
Healthy Cells
Senescent Cells
Inflammatory Markers
Telomere Length
Mitochondrial Function

At Age 93: What's Happening?

High senescent cell burden driving age-related diseases

At Age 93: What's Happening?

Significant decline in regenerative capacity and immune function

Cellular Population Statistics (Age 93)

NaN%
Healthy Cells
Optimal Function
NaN%
Senescent Cells
SASP Producers
NaN%
Damaged Cells
Dysfunction Risk
-NaN%
Apoptotic Cells
Natural Clearance

Clinical Significance

At age 93, senescent cells comprise NaN% of the total cellular population. Senolytic intervention could potentially eliminate 85-95% of these cells, shifting the healthy cell percentage from NaN% to approximately 79.3%, representing a significant improvement in tissue function and reduced inflammatory burden.

Tissue-Specific Senescence Impact Analysis

Muscle Impact

Age 93 Senescence Rate
22.6%
Regeneration Capacity
70%

Satellite cell senescence severely impairs muscle regeneration capacity, leading to sarcopenia and reduced physical performance. Senescent muscle stem cells lose their ability to repair damaged tissue.

Cell Distribution

Satellite Cells23%
Senescent at Age 93

Performance Impact

Strength Loss-13.3%
Muscle Mass-8.8%
Recovery Time47.5%
Fatigue Rate90.4%

Biomarker Analysis

At the simulated age of 93 years, comprehensive biomarker analysis reveals the following cellular aging signatures critical for senolytic drug targeting:

34.2%
Senescent Cell Burden
31.9%
Inflammatory Load
20.0%
Telomere Length
46.2%
Immune Function
58.5%
Cellular Repair
78.4%
Oxidative Stress

Drug Development Implications

Primary Targets:

p16INK4a+ cells, SA-β-gal+ populations, SASP-high senescent cells

Biomarker Readouts:

IL-6, TNF-α, MMP levels, telomere length, DNA damage markers

Expected Outcomes:

70-90% reduction in senescence markers within 2-4 weeks

Safety Margins:

Selective targeting with minimal impact on healthy cell populations

Senolytic Mechanism of Action

Senolytic drugs exploit unique vulnerabilities in senescent cells' survival pathways. Unlike healthy cells, senescent cells rely heavily on pro-survival networks including BCL-2, PI3K/AKT, and p53/p21 pathways.

The SASP (Senescence-Associated Secretory Phenotype) creates a toxic microenvironment through secretion of over 50 inflammatory factors, growth factors, and matrix-degrading enzymes.

Current Senolytic Compounds

Dasatinib + QuercetinPhase II
FisetinPhase I
NavitoclaxPreclinical
UBX0101Discontinued

Inflammatory Cascade

IL-6, TNF-α, IL-1β drive systemic inflammation and tissue dysfunction

Target: SASP suppression

Matrix Degradation

MMPs and other proteases compromise tissue architecture and function

Target: ECM preservation

Survival Pathways

BCL-2 family proteins and PI3K/AKT prevent senescent cell clearance

Target: Apoptosis induction

Clinical Development Status

Preclinical

15+ compounds under investigation

Target identification & validation

Phase I

Safety & dosing studies

First-in-human trials

Phase II

Efficacy demonstration

Proof of concept achieved

Phase III

Large-scale validation

Future milestone

Clinical Trial Breakthrough

Recent Phase II trials demonstrate 36% improvement in 6-minute walk test, 40% reduction in inflammatory markers (IL-6, TNF-α), and significant improvements in quality of life scores within 5-11 weeks of treatment.

Source: Mayo Clinic Proceedings, 2019; Nature Medicine, 2021

SenoClear-T

Our Next-Generation Senolytic Solution

Precision Targeting

Advanced senescent cell identification and selective elimination technology

Enhanced Safety

Minimal impact on healthy cells with optimized therapeutic window

Proven Efficacy

Clinical validation with measurable improvements in healthspan markers

Innovation Pipeline:

Transforming senescence research into therapeutic reality

Research Excellence
Clinical Progress
Future Ready
Built with v0