JQBio

Aims & Scope

JQBio publishes work that applies quantum principles, quantum hardware and quantum information theory to design, model, simulate and optimise living systems — the shift from observing quantum effects in biology to engineering with them.

We publish
Methods

Quantum, quantum-inspired and hybrid methods applied to biosystems problems, including algorithmic and computational design, simulation and optimisation pipelines.

Application domains

Drug discovery, genomics, metabolic and ecological models; quantum sensing, biomimetic materials, bioenergy and sustainability designs.

Adoption research

Enterprise and organisational research on quantum adoption within biosystems engineering.

We do not publish
Speculative or metaphysical framing

“Quantum consciousness” work, ungrounded metaphysical interpretations of life, or claims argued from analogy rather than mechanism.

One-sided contributions

Purely biological studies with no quantum component, or quantum/technical papers — new models, frameworks or programs — with no functional biological application.

Commercial material

Content intended for internal or direct commercial dissemination, quantum-advantage business cases, or market-intelligence reporting.

Raw datasets and heavy mathematical derivations/equations or computational methods are not necessarily required for submission with JQBio. We value more the presentation of content as exploratory and evidence-based. Submissions are open to researchers, engineers, clinicians, independent scholars and industry practitioners at any career stage.

Submission Tracks

Five Tracks, read one at a time. A manuscript is submitted against one; editorial triage may move it.

Track 01

The Foundational Blueprints of Life

Exploring the structural baseline of science, life and fundamental quantum principles underlying biological, molecular and synthetic systems, including their potential to inform the engineering of life at atomic and subatomic scales.

Keywords
Foundational JQBio TopicsQuantum foundationsQuantum informationMolecular systemsBiomolecular interactionsSynthetic biologyQuantum biosystems
Track 02

Quantum Computing & Algorithmic Bio-Design

Utilizing quantum processors, advanced algorithms, and hybrid classical-quantum computing frameworks for designing, modelling, simulating and optimising biological and biosystems-engineering problems, spanning hardware, software and algorithmic architectures.

Keywords
Quantum computingQuantum algorithmsAlgorithmic biodesignOptimisationSimulationMachine learningComputational biologyInformation processing
Track 03

Bio-Inspired Quantum Sensing & Diagnostics

Deployment of quantum hardware, optical technologies, and subatomic signaling systems to map real-time biological data; and sensing approaches for detecting, mapping and interpreting biological, environmental and system-level information across spatial and biological scales.

Keywords
Quantum sensingBiosensingDiagnosticsBiometricsRemote sensingEnvironmental monitoringBiological imagingMultimodal data
Track 04

Macro-Systems, Biomimetic Energy & Sustainability

Translating quantum-inspired solutions: biomimetic photosynthesis, biofuel optimisation, and ecological simulation. Systems-level approaches applying biological principles, biomimetics and emerging technologies to energy, environmental, agricultural and sustainability challenges, from biological processes to large-scale infrastructure.

Keywords
BiomimeticsBioenergyPhotosynthesisEcological modellingSustainabilityEnvironmental systemsCrop systemsFood security
Track 05

Quantum Communications, Remote Monitoring & Network Telemetry

Sector exposure of quantum-proof networking, distributed biometric sensor meshes, and low-latency data telemetry; and quantum and post-quantum communication, networking and telemetry approaches supporting the secure, resilient and efficient exchange of information across biological, technological and biosystems infrastructures.

Keywords
Quantum communicationsQuantum networkingQuantum internetPost-quantum cryptographyQuantum-safe securityNetwork telemetryInformation securityResilient infrastructure

Article Types

Exploratory Paper
The JQBio flagship dissemination style for exploratory, keynote and visionary content, as hybrid review-original articles.
Original Research Article
Full-length peer-reviewed studies with reproducible methodology and original research findings.
Technical Note
Focused algorithmic, methodological or hardware contributions.
Reviews
Critical synthesis of a field, method or emerging direction, with forward outlook.
Case Study
A single implementation or deployment reported in detail, with the methods, constraints and outcomes set out for others to reproduce.
Commentary
Concise reports of early findings, wider trending subjects, perspectives or expert analysis, open to contributors across disciplines and career stages.
Briefly JQBio
An alterantive to the JQBio flagship dissemination style for exploratory, keynote and visionary content, as hybrid original-commentary articles reserved for Editorial office publications.
Research Highlights
Celebrating research across the Five JQBio Tracks in the same paper using cross-disciplinary commentary, aimed at general readership. The five tracks must be integrated, otherwise, use Research Briefings.
Research Briefings
Short, accessible and non-technical commentary on upcoming, current or prospective research outcomes and their wider impact on science and technology on one or more of JQBio's Discovery Tracks.

Quantum Relevance

A common language for how a submission engages with quantum capability, from direct application to meaningful pathway.

Quantum
Direct applications of quantum technologies: computing, simulation, sensing, communications and quantum information.
Quantum-related
Methods, architectures and frameworks drawing substantively on quantum concepts to address biosystems challenges.
Quantum-inspired
Classical algorithms, models and engineering approaches materially inspired by quantum theory, where the framing adds value.
Quantum-adjacent
Supporting technologies, infrastructure, integration, security and resilience within the wider quantum ecosystem.
Quantum-relevant
Research with a meaningful connection or pathway to quantum capability within biosystems engineering.

Background

Living systems are, at their most fundamental baseline, quantum mechanical and thermodynamical entities. Electron transfer, chemical bonding and molecular design occur at scales where classical resolution fades into the probabilistic landscape of quantum mechanics.

Quantum biology has so far remained largely observational, documenting where nature exploits quantum effects — avian navigation, light-harvesting in photosynthesis. The Journal of Quantum Biosystems Engineering exists for the next step: treating biological structures as programmable quantum biosystems, and holding that work to an uncompromising standard of applied rigour.

Next: the Author Guidelines and the Peer Review Process. If you are weighing up where a piece of work sits, the Discovery guide walks through the scope in five short questions.