NEXUS NANO LABS // DEEP TECH RESEARCH

EngineeringMatterattheAtomicScale

Nexus Nano Labs pioneers breakthroughs in nanotechnology, advanced materials and molecular engineering.

SCROLL
Core Technologies

Scientific
Foundations

Four convergent technology pillars that constitute the operating core of our research and commercial pipeline.

01MATERIALS

Nanomaterials

Engineered materials with molecular-scale precision. We design and synthesize nanostructures with extraordinary strength-to-weight ratios, thermal resistance, and conductivity profiles impossible in bulk materials.

< 5 nm grain size
02SYNTHESIS

Molecular Engineering

Atom-by-atom construction of complex functional molecules. Our synthesis platforms achieve structural complexity that conventional chemistry cannot approach, enabling programmable molecular machines.

± 0.1 Å precision
03ROBOTICS

Nano Robotics

Autonomous nanoscale agents designed to navigate biological and material environments. Programmable, self-replicating molecular robots for targeted delivery, repair, and assembly tasks.

40–200 nm scale
04QUANTUM

Quantum Surfaces

Atomically flat substrates and quantum-confined surface states enable unprecedented electron transport characteristics. The basis of next-generation computing, sensing, and energy conversion.

< 1 nm roughness
Research Milestones

Six Years of
Breakthroughs

Foundation

Laboratory Foundation

Nexus Nano Labs established in Cambridge. Secured Series A funding of $42M. First electron microscopy suite operational.

2019
2020
Research

First Synthesis Breakthrough

Successful synthesis of a novel carbon nanotube architecture with 3× the tensile strength of previously known variants.

Medical

FDA Fast-Track Designation

Nano-encapsulated drug delivery platform received FDA Fast-Track designation for targeted oncology applications.

2021
2022
Computing

Quantum-Nano Interface

World-first demonstration of a quantum-dot nano transistor operating at room temperature. Published in Nature Nanotechnology.

Scale

Industrial Scale

Proprietary roll-to-roll nano-deposition process achieves industrial output with sub-5nm uniformity across 2m substrate widths.

2023
2024
Network

Global Research Network

Partnerships formalized with 14 institutions across 9 countries. Joint research programmes with MIT, ETH Zürich, and KAUST.

Real-World Impact

Applied
Science

Nanotechnology's impact extends across every critical industry. Our platform technologies enable transformational applications.

01
Precision Delivery

Medicine

Nano-carriers that navigate the bloodstream to deliver therapeutics directly to tumour cells, bypassing healthy tissue entirely. Nano-diagnostic sensors detect pathology at the single-molecule level.

Drug Precision98.4%
Side Effects Reduction−72%
02
Nano-Enhanced Storage

Energy

Nanostructured electrode materials deliver energy densities 4× above commercial lithium-ion. Nano-textured photovoltaic surfaces increase solar absorption by 40%.

Energy Density4× improvement
Solar Efficiency+40%
03
Molecular Transistors

Computing

Post-silicon computing built on molecular switch arrays operating at 1.2nm feature sizes — 18 generations beyond current CMOS roadmaps.

Node Size1.2 nm
Power Reduction−88%
04
Structural Nanocomposites

Aerospace

Carbon nano-reinforced composites and nano-ceramic thermal coatings for hypersonic vehicles. Strength of titanium at 30% the mass.

Mass Reduction−30%
Operating Temp2200 °C
Advanced nanotechnology laboratory
TEMP //−196.2 °CCryo Stage 01
PRESSURE //2.4×10⁻¹⁰Torr — UHV
BEAM //200 kVTEM Accelerating
TRANSMISSION ELECTRON MICROSCOPE — LAB 04A — CAMBRIDGE
Laboratory Infrastructure

Where Theory
Meets Precision

Our 18,000 sq ft research campus houses the most advanced nanoscale fabrication and characterisation tools in private research. Four transmission electron microscopes, three UHV surface science chambers, and a dedicated cleanroom complex form the backbone of our capabilities.

Every experiment is conducted under ultra-high-vacuum conditions with precision temperature control. Our cryo-TEM operates at −196°C, enabling atomic-resolution imaging of biological nanostructures in their native state.

Cleanroom ClassISO 3
Resolution0.08 nm
Instruments140+
Researchers280+
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By the Numbers

Measurable
Excellence

Atomic Precision
±0 nm
Published Papers
0+
Material Efficiency
0%
Active Patents
0+
PROCESS PERFORMANCE METRICS
Synthesis Yield
97%
Structural Integrity
99%
Energy Efficiency
94%
Process Repeatability
98%
Partner Institutions
MIT Lincoln Laboratory
CERN Technology Transfer
NASA Ames Research
ETH Zürich Materials
DARPA BTO
Max Planck Society
KAUST Innovation
Fraunhofer Institute
MIT Lincoln Laboratory
CERN Technology Transfer
NASA Ames Research
ETH Zürich Materials
DARPA BTO
Max Planck Society
KAUST Innovation
Fraunhofer Institute

Scientific
Validation

Peer review and institutional partnerships confirm the integrity and impact of our research.

"Nexus has fundamentally changed what our lab believes is achievable at the nanoscale. Their synthesis protocols are 18 months ahead of anything we have seen in published literature."
AR

Prof. A. Reinholt

Chair of Nanoscience, ETH Zürich

"The quantum-nano interface demonstrated by Nexus is the most significant computing materials breakthrough this decade. We are proud to be their research partner."
SN

Dr. S. Nakamura

Senior Researcher, MIT CSAIL

"Our oncology trials using Nexus nano-carriers show an efficacy improvement that no conventional drug formulation has achieved. The data is extraordinary."
CV

Dr. C. Vasquez, MD

Principal Investigator, UCSF Cancer Center

Initiate Contact

Begin the
Dialogue

Whether you represent an institution, industry partner, or investor, we welcome precision-focused collaboration. All enquiries are reviewed by our research leadership.

CHANNEL //research@nexusnanolabs.com
DIRECT //+44 (0)1223 740 000
LOCATION //Cambridge Science Park, CB4 0FW
LAB_HOURS //Mon–Fri 08:00–20:00 UTC+0
> INIT CONTACT.PROTOCOL — NXL_COMM_v2.1

ENCRYPTED // All communications treated with strict confidentiality.