Ömer Fidancı
Abitur student at Schule Schloss Salem. Intern at the University of Stuttgart quantum electronics lab.
Six co-founders with strengths across research, operations, technical execution, and business modeling.
Abitur student at Schule Schloss Salem. Intern at the University of Stuttgart quantum electronics lab.
IB student at Schule Schloss Salem. Intern at SHERO e-commerce company.
IB student at Koç High School. FRC Houston World Championship Qualifier.
IB student at Koç High School. Intern at Mesa Machinery.
NYU Stern admit. Proficient in management and cost accounting.
The deck frames the team as a balanced founding group with technical, operational, and commercial strengths.
Material physics, programming, and management/accounting.
Academic and professional exposure across schools, labs, and internships.
A cross-border team spanning Germany, Turkey, and international institutions.
Build safer, stable, scalable semiconductor wafer technology.
SpinVault is a student-founded deep-tech venture backed by e2vc's NextGen program, combining physics, product discipline, and finance into a staged path from simulation evidence to protected IP and partner-ready commercialization.
Build a secure storage architecture that uses magnetic control of electron flow to improve retention, reliability, and readout consistency.
Turn the concept into a capital-efficient IP platform: validate the physics, document the evidence, file the claims, and commercialize through licensing or co-development.
The pitch deck frames SpinVault around three core skills, four institutions, and one shared goal, with e2vc NextGen support helping the team move with startup discipline and proof-first execution.
Understanding the membrane, magnetic behavior, and feasibility of the storage model.
Building simulations, interfaces, validation systems, and the technical communication layer.
Preparing the project for market sizing, funding strategy, budget control, and patent commercialization.
SpinVault connects technical ambition with a practical commercialization path: prove the mechanism, protect the know-how, then build commercial leverage before heavy fabrication spend.
Material physics, programming, and accounting/finance.
A cross-school team using academic and lab exposure to build credibility.
Produce a safer, more stable, and commercially defensible memory platform.
SpinVault is presented for reviewers who need a clear explanation of what is technical, what is validated, and how the business can scale without overcommitting capital too early.
Understand why NextGen support matters for proof funding and advisor access.
Evaluate whether the simulation and assumptions are technically grounded.
See the long-term fit for secure storage, automotive, and industrial systems.
Review the path from mechanism to claims, documentation, and licensing.
SpinVault is built around a simple operating rule: make every assumption visible before asking anyone to trust the conclusion, then translate that evidence into partner and funding conversations.
We show the simplified equations, inputs, and outputs so technical reviewers can challenge the foundation directly.
We distinguish between concept, simulation, expert feedback, lab plan, and future product claim.
We translate the technical work into diagrams, validation notes, patent logic, and commercialization milestones.
Direct answers for partners who want to understand the team, the NextGen-backed strategy, and the current financing stage.
Because the team is presenting a staged proof path: simulation evidence, advisor review, IP planning, and partner-grade documentation rather than a vague product claim.
Advisor feedback, physics mentorship, lab access, and funding discipline so the project can move from proof package to patent-ready execution without wasting capital.
SpinVault is not trying to sell a fab-heavy product first. The strategy is to validate the mechanism, protect the IP, then monetize through licensing, co-development, or strategic partnership.
SpinVault should be presented as an IP-led deep-tech venture backed by e2vc's NextGen program: validate the physics, protect the mechanism, build partner confidence, and commercialize through licensing, co-development, or strategic acquisition before attempting factory-scale ownership.
The practical route is to make SpinVault valuable as protected technical knowledge first: simulation evidence, expert review, patent claims, and a prototype plan that a semiconductor partner can evaluate. NextGen support reinforces the founder discipline behind that path.
The business logic follows a staged model: do not sell a hardware promise before the mechanism is validated, and keep each step finance-aware so capital is spent on proof, not noise.
The strongest early business model is not "sell chips tomorrow." It is staged monetization of validated IP and technical optionality, with spending tied to proof milestones.
Universities, labs, and semiconductor mentors help verify whether the model deserves prototype investment. Revenue is not the first goal here; credibility is.
Output: proof packageIf simulations and reviews are promising, SpinVault can seek grant-backed, sponsor-backed, or partner-backed prototype work instead of self-funding expensive fabrication.
Output: measured device dataLicense the protected cell mechanism or architecture to companies already capable of integrating memory technologies into semiconductor workflows.
Output: royalties or milestone paymentsIf a partner sees SpinVault as a useful security or retention layer, the company can pursue joint development, exclusive field licensing, or acquisition discussions.
Output: strategic valueThe orchestration layer is doable, and it matters commercially because it turns SpinVault from a one-time demo into a repeatable evidence engine for advisors, patent work, partners, and future labs.
Each simulation run stores parameters, equations, model version, output graphs, and notes. This gives partners a record they can inspect instead of a black-box presentation.
The public website can respond instantly through simplified models while high-fidelity jobs run in the background only when a parameter set is worth deeper validation.
GPU or cloud simulation can become costly. A queue, budget ceiling, checkpointing, and automatic archive policy prevent a young company from burning money on unstructured experiments.
Instead of asking a semiconductor partner to believe a slide, SpinVault can offer controlled parameter sweeps, validation reports, and a roadmap from browser model to lab measurement.
NextGen support should be framed around turning a physics concept into investor-grade and partner-grade evidence while keeping the burn focused on proof, documentation, and advisor access.
Build a stronger simulator, sensitivity graphs, and parameter sweeps that make the technical thesis inspectable.
Pay for structured critique from spintronics, quantum transport, and semiconductor fabrication advisors.
Define materials, lab partners, measurement plan, wafer/process assumptions, and first proof-of-concept requirements.
Convert the mechanism, drawings, claims, and validation record into a filing-ready IP package.
SpinVault should avoid a broad market story. The first audience is narrow: organizations that care about reliable, secure, physically robust memory and are willing to evaluate a staged, partner-led commercialization path.
Memory systems where stability and physical reliability can matter in harsh environments.
Products where attack resistance and long-term retention are central to customer value.
Factories, robotics, and controls that prioritize simplicity, uptime, and reliable storage behavior.
Each milestone should increase company value by reducing one specific risk: scientific, legal, partner, commercial, or financial.
Equation-backed model, sensitivity graphs, and a clear list of assumptions.
External review from physics, semiconductor, and IP mentors.
Claims map, diagrams, prior-art comparison, and defensible technical language.
Go/no-go decision for a physical proof-of-concept or a revised technical direction.
The project should preserve cash by validating the riskiest assumptions before committing to physical research, and by treating every spend as part of a proof-to-partnership pipeline.
If the physical thesis is validated, SpinVault becomes more than a school project: it becomes a protected memory-cell architecture that can plug into secure hardware, resilient embedded systems, and future non-volatile memory partnerships.
Be known as the young team with a rigorous, patent-aware, physics-backed storage concept.
Move from browser model to reviewed prototype plan and lab-validated early measurements.
License or co-develop a SpinVault memory layer for secure, reliable devices where physical retention and attack resistance matter.