TECHNOLOGY
Alba Scientific, specializes in advanced deposition systems, quantum technologies, and life sciences research tools. Our portfolio includes advanced PVD (Physical Vapor Deposition) systems, UHV (Ultra-High Vacuum) components, AFM (Atomic Force Microscopy), and quantum sensing instruments that empower breakthroughs across industries like nanotechnology, materials science, life sciences, and quantum computing. Designed for research labs, academic institutions, and industrial applications, our technologies offer precision, reliability, and flexibility to support the future of science and innovation.
Our Core Technologies and Their Impact on Key Industries
Magnetron Sputtering Deposition
Magnetron sputtering is a physical vapor deposition (PVD) technique that uses high-energy ions to dislodge atoms from a target material, depositing them as an ultra-thin film on a substrate. By applying a magnetic field, the process enhances plasma density and deposition efficiency, delivering precise, uniform coatings at the nanoscale. This technology is integral to nanotechnology, materials science, and biomedical engineering, enabling advanced surface modifications for improved performance and biocompatibility.
Key Features:
Fully UHV capable that produces high-purity thin film coatings.
Multi-material coating that supports metals, alloys, and ceramics.
Robust, reliable performance engineered for the needs of research labs.
Image credit: Co-Deposit upto 3 materials from one UHV source , Nikalyte
Applications:
- Nanoparticle and quantum dot fabrication for imaging and diagnostics
- Biosensor development for rapid, sensitive detection
- Drug delivery systems with controlled release profiles
- Biocompatible coatings for implants and medical instruments
- Thin film electronics and optical devices
E-Beam Evaporation Deposition
Electron beam evaporation (E-beam evaporation) is a physical vapor deposition (PVD) technique where a focused high-energy electron beam heats and vaporizes a target material. The vapor then condenses onto the substrate, forming a thin film with exceptional purity, uniformity, and thickness control. This method is widely used in advanced materials research, nanotechnology, and biomedical engineering for creating high-performance coatings and functional nanostructures.
Key Features:
Single power supply that streamlines operation, reduces maintenance, and ensures consistent, high-quality deposition.
UHV compatibility that performs in ultra-high vacuum environments for contamination-free thin films.
Image credit: Co-Evaporation of upto 4 materials , Nikalyte
Applications:
- Advanced materials and thin-film research
- Semiconductor and photonic device fabrication
- Energy technologies: solar cells, battery electrodes
- Biomedical coatings for implants and devices
- Biosensors for diagnostics and monitoring
Nanoparticle Deposition Systems
Nanoparticle deposition using the terminated gas condensation (TGC) technique involves generating nanoparticles in a controlled gas environment, where vaporized atoms or molecules condense into particles before being deposited onto a substrate. This method offers precise control over particle size, distribution, and morphology, enabling the creation of custom-engineered nanomaterials for targeted biomedical and nanotechnology applications.
Key Features:
Customizable particle size tailors nanoparticles to specific diameters.
UHV-ready deposition , maintains a contamination-free environment.
High-precision dispersion, achieves uniform nanoparticle distribution.
Image credit: Nanoparticle Catalysts for Green Hydrogen, Nikalyte
Applications:
- Nanomaterial-based cancer therapies
Biomedical implants with enhanced biocompatibility
Catalysis and chemical reaction enhancement
Sensors for medical, environmental, and industrial use
Ultra-High Vacuum (UHV) Technology
Ultra-High Vacuum (UHV) technology refers to the creation and maintenance of extremely low pressures, typically below 10^-9 mbar, essential for minimizing contamination in high-precision experiments. UHV environments are crucial for surface science, nanotechnology, and material science, where clean, controlled conditions are needed for reliable results.
Key Features:
- Achieves ultra-low pressure (down to 10^-12 mbar)
- Prevents contamination by minimizing exposure to air and moisture
- Highly stable and reliable performance for long-term research
- Modular components such as feedthroughs, motion control systems, and coaxial cables for tailored solutions
Image credit: CARME vacuum chamber, UKRI STFC project, at STFC Daresbury Laboratory. Flanges by Allectra.
Applications:
Semiconductor fabrication for chip manufacturing and thin-film deposition.
Surface analysis enables XPS and STM for material characterization.
Supports the development of nanoelectronics and photonic devices.
Provides clean environments for high-resolution imaging.
Atomic Force Microscopy (AFM)
Atomic force microscopy is a high-resolution scanning probe technique that maps surfaces at the nanometer and even atomic scale. By measuring the interaction forces between a sharp probe tip and the sample surface, AFM provides 3D surface topography and quantitative force measurements without the need for complex sample preparation. This technology is indispensable in nanotechnology, SEMICON, and biomaterials research, offering detailed insights into material properties, microstructure, and performance characteristics.
Key Features:
Tailored for all levels, designed for newcomers, students, and researchers.
Innovative and modular, offers an open design for easy customization, enabling innovation.
Affordable and accessible, provides cost-effective solutions for educators and innovators.
Image credit: Flakes of graphene deposited on mica, AFM Workshop
Applications:
- Assists in nano-patterning and fabrication of semiconductor devices
Mechanical property mapping of semiconductor materials for MEMS.
Biological imaging at the nanoscale
- Analyse polymer surfaces and nanostructures for nanocomposites.
- Characterizes graphene’s surface properties, and defects for nanoelectronics.
Atomic Force Microscopy (AFM) Probes
AFM probes are the exchangeable sensors at the heart of atomic force microscopy. The probe’s cantilever stiffness is typically matched to the measured surface’s stiffness, while probe’s tip dimensions influence the image resolution and aspect ratio measurable; the probe’s chip is critical for handling. AFM probes are readily available for 3D nanoscale imaging, electrical, magnetic, thermal, and mechanical measurements, as well as a myriad of more niche measurements such as SECM, femtofluidics, etc.
Key Features:
Unique batch processing for highest performance reproducibility
Conical tip design for simple deconvolution
Pt coated electrical probes, more robust coating thanks to novel design
Image credit: Protein imaging in Alzheimer’s blood (left) and red blood cells (right), NuNano
Applications:
- Surface topography, spectroscopy of soft to hard materials
- Electrical measurements such as C-AFM, EFM, SKPM, PFM etc.
- Semiconductor inspection, High Aspect Ratio measurements
- Individually SEM characterised AFM probes
- Bespoke probe engineering
Superconducting Qubits
Superconducting qubits are one of the most promising technologies for quantum computing hardware. Created by nanostructuring a Josephson junction (two superconductors separated by an insulator) on a support chip, these chips need to be cooled to mK temperature and protected from any noise source that could reduce the quantum coherence.
Alba Scientific partner with Con-Science AB to offer you their off-the-shelf Qubit-in-a-box, QuiB.
Key Features:
- Fixed frequency, tunable, XY sweepable configurations available
- Typical lifetime 130 µs, >200 µs achieved
- Batch or for a surcharge individual certification available
- Supplied in a compact Au-plated OFC package with multiple SMPM (QiB1, 2) or SMA (QiB0) connectors
Image credit: Unprecedented tracking of microbial cultures, Con-Science
Applications:
- Cryostat testing, system noise/disturbance reduction
- Benchmarking, metrology
- Teaching, training
- Pharmaceutical research and drug discovery
Nitrogen-Vacancy (NV) Diamond Quantum Sensors
Nitrogen-vacancy diamonds are quantum-grade materials with atomic-scale defects that enable ultra-sensitive detection of magnetic, thermal, and electric fields at the nanoscale. Their unique properties make them ideal quantum sensors, and they are used in fields from materials research (i.e. spintronics), through health science (MEG), GPS-free navigation, and even remote, drone-based, metal detection. Our NV diamond engineering manufactures surface close NV in light guides to improve sensitivity and lateral resolution.
Key Features:
- Reproducible structures for simple navigation
- Surface close NV embedding for best lateral resolution.
- 5-20x PL enhancement through engineered structures on the diamond.
Image credit: Integration of germanium-vacancy single photon emitters arrays in diamond nanopillars, Qnami Quantum Foundry
Applications:
- Reference for metrology
- Instrument set-up and optimisation
- Enhanced signals for NV multiplexing
- Improved sensitivity
SERS (Surface-Enhanced Raman Spectroscopy) Substrates
SERS Substrates leverage surface-enhanced Raman scattering to achieve ultra-sensitive molecular detection, enabling identification of low-concentration molecules that are undetectable with conventional Raman spectroscopy. By using metallic nanostructures to amplify Raman signals, SERS technology delivers exceptional precision for life sciences, chemical analysis, and biosensing. This makes it a powerful tool for drug testing, cancer detection, and environmental monitoring.
Key Features:
Ag and Au nanoparticle coatings , significantly boost Raman signal intensity for trace biomolecule detection.
High surface-to-volume ratio , maximizes signal enhancement for greater sensitivity and reproducibility.
Versatile application range, suitable for drug testing, cancer research, and biomedical diagnostics.
Detection of narcotics such as Fentanyl, Heroin, MDMA.
Applications:
Drug testing and pharmaceutical quality control
Cancer detection at early stages
Chemical analysis in research and industry
Environmental monitoring for pollutants and toxins
- Trace detection for security and forensic applications