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Glass storage engineered for
continuance in a volatile digital world.
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Why it Matters
A World Out
of Sync
Data is exploding, but the systems meant to protect it are falling behind.
AI accelerates creation beyond what magnetic hardware and tape were ever designed to sustain.
Energy grids are strained, while today’s storage stacks depend on continuous power.
Cyberattacks rise as geopolitical volatility grows, exposing critical information to new risks.
At the same time, much of our digital memory still rests on fragile foundations. Hard drives and SSDs wear out. Magnetic tape decays.
These systems remain vulnerable to heat, humidity, fire, and time —and to disruptions such as power loss, electromagnetic events, or geopolitical instability.
We are entrusting civilization’s irreplaceable knowledge to infrastructures never designed for an unstable world — while generating more data than they can reliably preserve as the world grows less predictable.
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technology overview
Data Written with Light.
Memory Held in Glass.
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Write with light
Data is written as nanostructures onto the glass surface with ultrafast laser pulses, forming immutable physical structures at the material level across extended timescales.
Store with stability
Written glass contains no dyes, coatings, magnetic layers, or charge states — nothing prone to rot, demagnetization, leakage, or fading.
It is engineered to withstand heat, humidity, water, radiation, electromagnetic pulses, and aging — while requiring no power at rest.
Read with certainty
Optical sensors capture the engraved nanostructures with high precision, converting their patterns back into digital data with deterministic accuracy.
Built-in redundancies ensure consistent, reliable retrieval over time.
Write with light
Data is written as nanostructures onto the glass surface with ultrafast laser pulses, forming immutable physical structures at the material level across extended timescales.
Store with stability
Written glass contains no dyes, coatings, magnetic layers, or charge states — nothing prone to rot, demagnetization, leakage, or fading.
It is engineered to withstand heat, humidity, water, radiation, electromagnetic pulses, and aging — while requiring no power at rest.
Read with certainty
Optical sensors capture the engraved nanostructures with high precision, converting their patterns back into digital data with deterministic accuracy.
Built-in redundancies ensure consistent, reliable retrieval over time.
Security & Reliability
Engineered for Enduring Trust
Intrinsic Integrity
The engraved nanostructures form a passive physical pattern that cannot be overwritten, encrypted, or corrupted without leaving observable physical damage.
Air-gapped by nature
With no electronics, no firmware, and no continuous power dependency, glass storage eliminates remote cyber-attack vectors.
Resistant to ransomware.
Beyond remote manipulation.
Beyond hidden installation paths.
Resistant to ransomware.
Beyond remote manipulation.
Beyond hidden installation paths.
Environmental resilience
Glass demonstrates resilience to heat, humidity, radiation, water exposure, and electromagnetic pulses — far exceeding the tolerance ranges of conventional magnetic and solid-state media.
Century-scale stability
Resistant to bit rot.
Beyond demagnetization.
Beyond charge leakage.
Beyond layer decay.
Reliability is determined by material science, not hardware lifecycles.
Beyond demagnetization.
Beyond charge leakage.
Beyond layer decay.
Reliability is determined by material science, not hardware lifecycles.
Security & Reliability
Engineered for Enduring Trust
Intrinsic Integrity
The engraved nanostructures form a passive physical pattern that cannot be overwritten, encrypted, or corrupted without leaving observable physical damage.
Air-gapped by nature
With no electronics, no firmware, and no continuous power dependency, glass storage eliminates remote cyber-attack vectors.
Resistant to ransomware.
Beyond remote manipulation.
Beyond hidden installation paths.
Resistant to ransomware.
Beyond remote manipulation.
Beyond hidden installation paths.
Environmental resilience
Glass demonstrates resilience to heat, humidity, radiation, water exposure, and electromagnetic pulses — far exceeding the tolerance ranges of conventional magnetic and solid-state media.
Century-scale stability
Resistant to bit rot.
Beyond demagnetization.
Beyond charge leakage.
Beyond layer decay.
Reliability is determined by material science, not hardware lifecycles.
Beyond demagnetization.
Beyond charge leakage.
Beyond layer decay.
Reliability is determined by material science, not hardware lifecycles.
The Limits of the Cloud
Dependency is not Sovereignty
The cloud is not an archive.
It is rented hardware, operated across data centers, under shifting legal and jurisdictional frameworks, and built on magnetic media that gradually degrade.
When outages occur, access is interrupted.
When geopolitical conditions change, jurisdiction can shift.
And when cloud providers update or reconfigure their systems, the data environment changes with them.
Critical knowledge requires physical control — not dependency.
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Sustainability
Permanence, beyond power. Permanence, beyond waste.
Passive at
rest
Once written, data on glass remains intact without ongoing power, cooling, or active operation.
Beyond
migration cycles
Data does not rely on regular refresh schedules, reformatting, or frequent equipment replacement — reducing the material and emissions footprint of continuous hardware churn.
Minimal materials.
Circular by design.
The medium is pure glass: free of rare earth dependencies, magnetic alloys, charge layers, or toxic components — and recyclable within a closed-loop process.
Built for
permanence
Long-term storage becomes a stable, passive infrastructure — not a system defined by constant energy consumption and recurring hardware disposal.
Sustainability
Permanence,
beyond power. Permanence,
beyond waste.
Passive at
rest
Once written, data on glass remains intact without ongoing power, cooling, or active operation.
Beyond
migration cycles
Data does not rely on regular refresh schedules, reformatting, or frequent equipment replacement — reducing the material and emissions footprint of continuous hardware churn.
Minimal materials.
Circular by design.
The medium is pure glass: free of rare earth dependencies, magnetic alloys, charge layers, or toxic components — and recyclable within a closed-loop process.
Built for
permanence
Long-term storage becomes a stable, passive infrastructure — not a system defined by constant energy consumption and recurring hardware disposal.
Partners & Investors
Backed by Pioneers who see what’s coming
ewigbyte is supported by investors, institutions, and technologists who recognize that the world needs a new foundation for digital permanence.
From leading deep-tech funds to national innovation agencies, our backers understand both the urgency and the magnitude of the problem we’re solving.
They are strategists, operators, engineers, and visionaries — people who have built category-defining technologies before, and who know how to spot the next one.
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Who It’s For
Made for the Stewards of Civilization’s Data
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Those who hold
memory
Archives, libraries, and museums preserving cultural history across centuries.
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Those who guard sovereignty
Governments and public institutions securing critical records, identity systems, and national digital assets.
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Those who observe
the universe
Scientific and research infrastructures generating irreplaceable data — from telescopes to particle physics.
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Those who
build the future
Semiconductor, energy, aerospace, and other industries whose cold data underpins operations, safety, and innovation.
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Those who design
the digital world
Cloud architects, integrators, and deep-tech providers shaping the next generation of data infrastructure.
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The Digital Continuum
Human knowledge is no longer written in stone, clay, or paper — it lives within fragile, energy-dependent machines.
But our need to preserve what matters has not changed.
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The Digital Continuum
is our answer:
A permanent physical layer designed to keep data accessible, authentic, and secure across generations.
Beyond hardware cycles.
Beyond operational energy dependence.
Beyond technological obsolescence.
Just memory — carried forward in glass and light.
About Us
Architects of the Digital Continuum
ewigbyte is built by a founding team that unites scientific depth, industrial execution, strategic leadership, and rigorous governance to address a complex infrastructure challenge relevant to Europe and beyond: safeguarding data beyond the constraints of magnetic hardware and energy dependency
Dr. Steffen Klewitz
Steffen leads photonics innovation and enterprise strategy
Phil Wittwer
Philipp translates breakthrough research into reliable, industrial-grade systems
Dr. Ina Dorothee
von Haeften
Ina builds the operational architecture, partnerships, and culture that enable scale
Together, they form a coherent, high-trust team — shaping a new chapter in how civilization’s memory endures.
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