OncoIntercept™ — earlier answers in pancreatic cancer.

Kiluma Biosciences is advancing OncoIntercept™, a pancreatic cancer–focused diagnostic program built on the InterceptIQ™ Platform, with the goal of identifying molecular signals associated with pancreatic cancer earlier in the disease process.

Flagship Program

OncoIntercept™

Pancreatic Cancer–Focused Diagnostic Program

OncoIntercept™ is being developed on the InterceptIQ™ Platform to evaluate molecular signals associated with pancreatic cancer biology. The program integrates cfDNA analysis, sequencing, molecular chemistry, tumor marker evaluation, and AI-enabled analytics — designed to support earlier detection, risk assessment, and future clinical decision-making.

Current Development Focus

ActiveBiomarker DevelopmentAnalytical Validation Preparation

Kiluma is actively pursuing partner-supported studies to accelerate validation.

Methylated beta cell markers
Pancreatic distress signals
Oncology gene signatures
Multi-omic integration
Scientists collaborating in a modern molecular biology research laboratory.

Translational Research

From discovery to actionable molecular insight.

Pancreatic Focus

Seeking to Detect Pancreatic Cancer Earlier

Pancreatic cancer is often diagnosed after significant disease progression, when treatment options are limited and survival outcomes are poor. Kiluma Biosciences is developing OncoIntercept™ to evaluate molecular signals associated with pancreatic cancer biology with the goal of supporting earlier detection, risk assessment, and future clinical decision-making.

  1. 1

    Healthy Pancreas

    Baseline biology, no detectable disease.

  2. 2

    Early Molecular Changes

    Subtle cfDNA and methylation shifts begin to appear.

  3. 3

    Preclinical Disease

    Biology is changing — symptoms have not yet emerged.

  4. 4

    Localized Pancreatic Cancer

    Tumor is confined; surgical options may still be viable.

  5. 5

    Advanced Disease

    Regional spread; treatment options narrow rapidly.

  6. 6

    Metastatic Cancer

    Distant spread; survival outcomes are poor.

Goal

Our goal is to move detection earlier in the timeline.

Partnerships

Actively Building the Validation Network

Kiluma is actively seeking partnerships with biobanks, clinics, academic medical centers, cancer centers, and research organizations to support analytical validation, retrospective sample studies, and future clinical validation programs.

Biobanks
Academic Medical Centers
Cancer Clinics
Gastroenterology Practices
High-Risk Surveillance Programs
Diagnostic Laboratories
Translational Research Groups
Oncology Clinical Trial Networks

Validation Workflow

Partner Samples
cfDNA / Biomarker Analysis
Sequencing & Chemistry
Tumor Marker Evaluation
AI-Enabled Pattern Recognition
Analytical Validation
Clinical Development
Physicians, clinical investigators, and academic researchers reviewing molecular data together.

Academic & Clinical Collaboration

A shared commitment across academia, hospitals, and industry.

The InterceptIQ™ Workflow

From Blood Sample
to Molecular Insight.

Every stage of the InterceptIQ™ workflow is designed to transform a simple blood sample into high-resolution molecular data — supporting the development of earlier cancer detection technologies.

Blood Collection
Plasma Processing
Molecular Analysis
Sequencing & Biomarker Evaluation
AI-Assisted Pattern Recognition
Scientific Interpretation
Stage 01Specimen

It begins with a single tube of blood.

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  1. Stage 01 · Specimen

    Blood Collection

    A standard venous draw into an EDTA tube preserves the integrity of circulating cell-free DNA. Each specimen is barcoded, chain-of-custody tracked, and entered into the laboratory information system before it reaches the bench.

    Specimen
    EDTA plasma, 10 mL
    Handled by
    Clinical phlebotomy
    Tracking
    Barcoded chain-of-custody
  2. Stage 02 · Pre-analytics

    Plasma Processing

    A controlled two-stage centrifugation protocol separates plasma from cellular blood components without lysing white cells. The acellular plasma layer carries the circulating cell-free DNA pool that downstream chemistry will interrogate.

    Method
    Two-stage centrifugation
    Performed by
    Laboratory technologist
    Output
    Cell-free plasma fraction
  3. Stage 03 · Wet lab

    Molecular Analysis

    Automated liquid-handling systems perform cfDNA extraction, conversion chemistry, library preparation, and target enrichment with picoliter-level reproducibility — the foundation of low-input, low-abundance signal detection.

    Instrumentation
    Automated liquid handlers
    Performed by
    Molecular biologists
    Output
    Sequencing-ready libraries
  4. Stage 04 · Genomics

    Sequencing & Biomarker Evaluation

    High-depth next-generation sequencing captures methylation patterns, fragmentomic features, and genomic variation across targeted regions. Reads are aligned and interrogated for tumor-associated signals relevant to pancreatic cancer biology.

    Platform
    Next-generation sequencing
    Signal classes
    Methylation · fragmentomics · variants
    Performed by
    Genomic scientists
  5. Stage 05 · Analytics

    AI-Assisted Pattern Recognition

    Machine-learning models integrate multi-omic features and surface candidate molecular patterns against curated reference cohorts. The output is a calibrated, probabilistic signal — designed to support, not replace, scientific interpretation.

    Method
    Multi-omic ML models
    Performed by
    Computational biologists
    Output
    Calibrated molecular signals
  6. Stage 06 · Translational

    Scientific Interpretation

    Molecular pathologists and translational scientists integrate sequencing data, biomarker evidence, and computational outputs into a single research-stage interpretation — intended to inform the future development of clinical decision-making tools.

    Reviewed by
    Molecular pathologists
    Inputs
    Sequencing · biomarkers · ML signals
    Output
    Research-stage interpretation
Illustrative depiction of a research-stage molecular diagnostics workflow. OncoIntercept™ is in development and is not available for clinical use.

Integration

A Multi-Layered Diagnostic Development Engine

OncoIntercept™ is being developed through the integration of molecular biology, cfDNA analysis, sequencing, chemistry, tumor marker evaluation, and AI-enabled analytics. The goal is to identify patterns that may support earlier insight into pancreatic cancer biology.

cfDNA Biology
DNA Sequencing
Molecular Chemistry
Pancreatic Cancer Tumor Markers
Clinical Data
AI Pattern Recognition
Output

OncoIntercept™ Signal Development

Six integrated technology layers converge into a single research-stage program designed to evaluate pancreatic cancer signal in cfDNA.

  • being developed
  • designed to evaluate
  • seeking to identify
  • potential to support
  • research-stage program
Advanced clinical molecular diagnostics laboratory with robotic liquid handlers and sequencing instruments.

Advanced Clinical Laboratory

Built on cutting-edge molecular diagnostics infrastructure.

Program Stage

OncoIntercept™ Development Pipeline

A structured path from discovery to commercial readiness. OncoIntercept™ is currently focused on biomarker development and analytical validation preparation.

1

Discovery

2

Biomarker Selection

Current Focus

Biomarker Development / Analytical Validation Preparation

3

Analytical Validation

4

Biobank Studies

5

Clinical Validation

6

Regulatory Strategy

7

Commercial Readiness

Note: Kiluma is actively pursuing partner-supported studies to accelerate validation.

Underlying Technology Platform

InterceptIQ™ — the engine behind OncoIntercept™.

Six integrated technology layers powering a single diagnostic program. Each layer contributes to earlier detection, sharper signal resolution, and more actionable clinical insights.

cfDNA Liquid Biopsy

Blood-based detection of circulating cell-free DNA enabling minimally invasive screening.

Multi-Omic Biomarker Analysis

Methylation, genomic, and proteomic signals integrated for higher diagnostic precision.

Molecular Diagnostics

Proprietary chemistry optimized for low-abundance pancreatic cancer signals.

AI-Driven Data Interpretation

Custom algorithms transforming complex multi-omic data into actionable insights.

Risk Stratification Algorithms

Probabilistic models classifying patients by individualized cancer risk.

Longitudinal Disease Monitoring

Serial testing infrastructure for ongoing surveillance of high-risk individuals.