Sources reviewed 20 Oct 2026. Event dates remain attached to the original evidence.
Quside describes a collaboration with IKERLAN to integrate quantum randomness into security technology for critical sectors. The announced work concerns entropy generation and its use in cryptographic systems. Quantum randomness, post-quantum algorithms and quantum key distribution perform different jobs and should retain distinct directory tags.
Randomness is an input to a security system rather than a blanket property of the whole system. A useful Quside profile should follow that input from the physical source through validation, extraction and delivery to the application. Each stage has a measurable boundary and possible failure behavior. An entropy source can be well characterized while a poorly integrated consumer repeats, truncates or mishandles its output. That is why documentation about health tests, interface behavior and interruption handling is as useful as a maximum bit rate. The strongest next evidence would show the implemented module under its stated operating conditions, with a clearly identified assurance evaluation and application integration. Readers would then be able to distinguish evidence about the randomness source from claims about a complete product’s resistance to an attacker, including which parts remain conventional engineering responsibilities.
For a reader evaluating Quside, the practical question is whether the complete entropy path meets the receiving application’s assurance requirements. A useful next evidence check is specific: trace the physical source, health monitoring, extraction, interface and independent assurance evidence for the configured product. Randomness quality and post-quantum algorithm security address different problems and should not share a certification label. These are proposed tests for judging a later update, not claims that the company has already passed them.
Security status: No public security verified in reviewed material; directory/watch profile only
Facts, comparisons and next evidence
At a glance
- label
- Quantum role
- value
- Quantum entropy components
- label
- Evidence date
- value
- Undated source; checked 2026-10-19
- label
- Assessment action
- value
- Evidence enrichment
Dated milestones
- Date scope
- source publication date; unknown if undated
- event
- Entropy-system integration announced
- status
- Published primary evidence; retain the narrower maturity statement
- what it does not establish
- Randomness quality and post-quantum algorithm security address different problems and should not share a certification label.
Quantum role
- layer
- Quantum entropy components
- Question
- Whether the complete entropy path meets the receiving application’s assurance requirements.
Questions for comparison
- Validated entropy versus raw output rate
- Health tests and failure behavior
- Consumer integration and assurance scope
Related approaches
- name
- SeQure Quantum
- relationship
- Proposed comparison of relevant dimensions; not a claim of equivalent products or a ranking
- dimensions
- Validated entropy versus raw output rate
- Health tests and failure behavior
- Consumer integration and assurance scope
- name
- ID Quantique
- relationship
- Proposed comparison of relevant dimensions; not a claim of equivalent products or a ranking
- dimensions
- Validated entropy versus raw output rate
- Health tests and failure behavior
- Consumer integration and assurance scope
Limits and missing evidence
- Randomness quality and post-quantum algorithm security address different problems and should not share a certification label.
- Specific module and deployment date
- Independent entropy/assurance evaluation
- Application integration and failure-response documentation
What would change this assessment
- trigger
- Trace the physical source, health monitoring, extraction, interface and independent assurance evidence for the configured product.
- Evidence needed
- Dated primary technical report, product specification or customer/issuer disclosure directly answering the test.
- Test
- Identify the configuration, time boundary and measured outcome; retain unsuccessful attempts and stated limitations.
- Limit
- Randomness quality and post-quantum algorithm security address different problems and should not share a certification label.
A starting question
- question
- Does a quantum random generator make an application quantum-safe?
- answer
- It can supply useful randomness, but the application also needs appropriate cryptography, key management and implementation. Evaluate the source and the consuming system separately. A strong component does not automatically certify everything connected to it.
Original sources and scope
- Quside and IKERLAN collaborate on quantum randomness ↗
Exact publication day not established; QRNG and PQC are distinct components.
