What is It?
Research acceleration platform that automates hypothesis generation, validation, and scientific decision-making. It transforms complex scientific workflows into
a transparent, reproducible, and self-improving system.
How it works

Four-Layer Intelligent Architecture:

  1. Digital Twin simulation
  2. Hypothesis evolution (500–1500 variants)
  3. Validation across 200M+ papers
  4. Hybrid Decision Platform
Who it’s for
  • Research Teams & Laboratories
  • Universities & Scientific Institutes
  • Corporate R&D Departments
  • Sustainability & ESG Projects
  • Grant & Funding Organizations
What you gain

10–20× faster analysis

70–90% less manual work

Breakthrough discoveries in days

Modern Research Workflows Are Slowing Down
Despite technological progress, scientific research still relies heavily on manual work, intuition-driven decisions, and repetitive data gathering. This creates bottlenecks that make systematic discovery nearly impossible.
  • 6–8 weeks spent analyzing a single technological pathway
    Even a small change in assumptions often forces researchers to start over.
  • 50–100 sources manually reviewed for every topic
    Papers, reports, patents — all processed by hand, with no automated synthesis.
  • High dependency on intuition and prior experience
    Critical decisions are often subjective and difficult to reproduce.
  • No systematic way to explore all alternatives
    Combinatorial explosion makes exhaustive evaluation unworkable.
  • 30–70% of modern workflows remain manual
    Researchers spend most of their time searching, checking, reconciling information — not generating hypotheses.
Why Systematic Analysis Is Nearly Impossible Manually
Even with experienced researchers, manually assessing all possible technological pathways is physically unworkable. The complexity grows exponentially, far beyond what human intuition or manual review can handle.
  • Combinatorial explosion makes full evaluation impossible
    Even small systems generate tens of thousands of possible pathways, none of which can be exhaustively reviewed by hand.
  • Researchers rely heavily on intuition and prior experience
    Critical decisions become subjective, inconsistent and hard to reproduce.
  • High-value solutions often remain undiscovered
    Most promising cross-domain combinations never get explored.
  • No transparency in decision-making
    Manual workflows leave no audit trail, making it impossible to justify choices in grants or peer review.
  • No mechanism for comparing alternative pathways
    Changing assumptions often forces researchers to restart the entire process.
The Four-Layer Intelligent Architecture
A unified system that transforms manual research workflows into a transparent, reproducible,
and self-improving discovery process.
  • Digital Twin
    A simulation-ready model that enables rapid testing of parameters, technologies, and pathway configurations.
  • AlphaEvolve
    Generates and evolves thousands of hypotheses, identifying unexpected combinations and optimizing them inside the Digital Twin.
  • Semantic Scholar Intelligence
    Validates hypotheses against 200M+ scientific papers, checks novelty, identifies trends, and uncovers interdisciplinary links.
  • Hybrid Decision Platform
    Combines rules, machine learning, and LLM synthesis to produce transparent, reproducible decisions — never a black box.
How Each Layer Works
A coordinated architecture where every layer amplifies the next — from modeling to hypothesis evolution to scientific decision-making.
  • 1. Digital Twin
    A simulation-ready model of the entire process.
    • 40–80 parameters per model
    • 200–500 simulations per cycle
    • Enables objective testing of thousands of configurations
    • 10–20× faster analysis compared to manual modeling
  • 2. AlphaEvolve
    An evolutionary engine that generates and improves hypotheses.
    • 500–1500 hypotheses per cycle
    • 50–100 evolution generations
    • Finds unexpected high-value combinations
    • Produces 3–5 optimal solution types in 1–2 days
  • 3. Semantic Scholar Intelligence
    Connects hypotheses to global scientific evidence.
    • 200M+ publications analyzed
    • 5,000–20,000 relevant documents per topic
    • Novelty and trend detection
    • Reveals interdisciplinary scientific links
  • 4. Hybrid Decision Platform
    Produces transparent, reproducible scientific decisions.
    • Integrates BRMS, ML models, and LLM synthesis
    • 20–50 rule-based decision modules
    • 5–12 ML predictors (risk, feasibility, forecasting)
    • 100% audit trail and fully explainable outcomes
What Researchers Gain
Clear, measurable advantages that transform how scientific research is done.
  • Radical Time Reduction
    10–20× faster analysis
    Months of manual work are reduced to days of systematic discovery — without sacrificing scientific rigor.
  • Less Manual Work, More Thinking
    70–90% reduction in routine tasks
    Researchers spend less time searching, checking, and reconciling information — and more time on analysis and hypothesis generation.
  • Higher-Quality Hypotheses
    30–50% improvement in hypothesis quality
    Thousands of alternatives are systematically explored, revealing high-value solutions that intuition alone would miss.
  • Full Transparency and Reproducibility
    100% explainable decisions
    Every assumption, comparison, and outcome is traceable — essential for grants, peer review, and long-term learning.
A Fully Automated 24-Hour Research Cycle
An autonomous system that continuously updates knowledge, evolves hypotheses, and improves research outcomes — day after day.
00.00
00.00
Information Ingestion
  • Automatic synchronization with Semantic Scholar, arXiv, PubMed
  • Integration of new papers on oceanology, materials science, chemistry
  • Citation Network Analysis updates to detect emerging trends
02.00
02.00
Digital Twin Updates
  • Updating Digital Twin models based on new technological developments
  • Recalculation of the Technology Compatibility Matrix
04:00
04:00
Hypothesis Evolution
  • AlphaEvolve launches new evolutionary cycles
  • 500–1000 new hypotheses → 50–100 generations of optimization
  • Semantic mutations via LLM to generate scientifically meaningful variations
08:00
08:00
Literature Validation
  • Automated novelty checks using BERT/SciBERT analysis
  • Feasibility scoring based on resource availability
12:00
12:00
Multi-Objective Optimization
  • NSGA-II Pareto optimization across 4D criteria space
  • Maintaining population diversity to avoid local minima
16:00
16:00
Research Plan Generation
  • Automatic generation of detailed research plans for the TOP-10 hypotheses
  • Methods, resources, timelines, success criteria
20:00
20:00
Feedback Integration
  • Automated novelty checks using BERT/SciBERT analysis
  • Feasibility scoring based on resource availability
Every Morning
Every Morning
A fresh set of refined insights — ready for decision-making.
Practical Case
Ocean Plastic Collection
How CirkaFlow systematically explored thousands of technological pathways and identified breakthrough solutions for ocean plastic recycling.
Stage 1 — Collection
Surface trawls, underwater drones, coastal cleaning, filtration units
Stage 2 — Sorting
IR spectroscopy, density separation, computer vision, manual sorting
Stage 3 — Purification
Ultrasonic, thermal, chemical, and biological treatments
Stage 4 — Processing
Mechanical recycling, chemical recycling, pyrolysis, depolymerization
Stage 5 — New Products
Fibers, fuels, monomers, composites
5 stages × 10 options per stage = 100000 possible pathways
Breakthrough Hypotheses
Breakthrough Hypothesis #1
Underwater drones + Biological cleaning + Depolymerization

  • Novelty Score: 0.92
  • Feasibility Index: 0.78
  • Impact Predictor: 0.85

Very limited overlap with existing research, high potential for real-world adoption.
Breakthrough Hypothesis #2
Computer vision + Ultrasound + Onboard pyrolysis

  • Cross-domain bridge: marine engineering + computer vision + thermochemistry
  • Only 3 papers found at this intersection
  • Emerging “hot zone” for the next 2–3 years
Automatically Generated Research Plan
Lab compatibility tests — 2–3 months
Small-scale pilot deployment — 4–6 months
Economic analysis & Life-Cycle Assessment — ~2 months
Paper outline prepared for Nature Sustainability — outline ready
Interdisciplinary Discoveries
Many breakthrough solutions emerge at the intersection of scientific fields that traditionally operate in separate silos.
CirkaFlow systematically identifies these intersections.
  • Oceanology ↔ Biotechnology
    Graph-based analysis revealed links between marine plastic-degrading bacteria and gene-engineering techniques for enzyme optimization.

    Result:
    A concept for a new class of highly efficient plastic-degrading microorganisms.
  • Materials Science ↔ Machine Learning
    Semantic analysis uncovered patterns between polymer molecular dynamics and computer-vision methods for microplastic classification.

    Result:
    An AI-guided design approach for biodegradable polymers.
  • Oceanography ↔ Nanomaterials
    Trend prediction identified emerging potential in nanoparticle-based microplastic adsorption and magnetic extraction methods.

    Result:
    New approaches for open-ocean purification.
Expert Discovery & Collaboration
Adds a practical collaboration layer on top of scientific discovery.
Identify Key Experts
Automatically identifies leading researchers at critical interdisciplinary intersections — based on publications, citations, and network centrality.
Build Strong Consortia
Recommends potential collaborators and research consortia optimized for scientific impact and project success.
Estimate Collaboration Success
Predicts the likelihood of successful joint projects using historical data, domain overlap, and collaboration patterns.
Outputs & Deliverables
Produces fully structured, decision-ready research outputs — not just ideas.
  • Structured Research Plans
    Detailed plans for top hypotheses, including methods, timelines, required resources, and success criteria.
  • Hypothesis Comparison Matrix
    Side-by-side comparison of alternative pathways across impact, feasibility, cost, and risk.
  • Novelty & Trend Analysis Reports
    Clear assessment of scientific novelty, emerging trends, and unexplored research gaps — validated against global literature.
  • Explainable Decision Audit Trail
    A complete, transparent record of assumptions, rules, models, and trade-offs behind every recommendation.
  • Publication-Ready Outlines
    Automatically generated structures for scientific papers and grant proposals, tailored to target journals and funding calls.
Research Accelerator Platform designed for teams working on complex, high-impact scientific and technological challenges.
  • Research Teams & Laboratories
    Teams conducting complex, multi-parameter research where manual analysis becomes a bottleneck.
  • Universities & Scientific Institutes
    Academic groups seeking reproducible, transparent research workflows for publications and grants.
  • Corporate R&D Departments
    Innovation teams exploring new technologies, materials, and processes under time and budget constraints.
  • Sustainability & ESG Projects
    Organizations working on environmental, climate, and sustainability challenges requiring interdisciplinary solutions.
  • Grant & Funding Organizations
    Institutions evaluating research proposals and seeking objective, explainable decision support.