Find Tenders for Laboratory, optical and precision equipments (excl. glasses)

IT Infrastructure Framework

Description: Dover Harbour Board intend to establish an IT Infrastructure Framework centred around 4 Lots: 1. Access Control 2. CCTV 3. Data Cabling & Infrastructure 4. Radio Infrastructure

Summary: The Dover Harbour Board is planning a procurement process titled "IT Infrastructure Framework," aimed at enhancing their IT systems in Dover, United Kingdom. This process is in the planning stage as of 7th August 2026, with a closing date for expressions of interest set for 30th September 2026. The framework revolves around four key areas: Access Control, CCTV, Data Cabling & Infrastructure, and Radio Infrastructure. The procurement method employed is a selective, competitive flexible procedure, allowing for the establishment of a framework agreement. The tender falls under the "works" category in private utility services, and it has a significant scope as it is above the threshold limit. It is anticipated that work will begin on 1st January 2027 and last until 1st January 2030.

5085.SH.JN - Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence

Description: The University of Sheffield, supported by the Wolfson Light Microscopy Facility (LMF), is seeking the supply, installation and commissioning of a high-throughput nanoindentation platform for the quantitative mechanical characterisation of biological samples and biomaterials. The instrument will provide a centrally managed research resource supporting investigators from across the Faculties of Health, Science and Engineering, together with external academic and industrial collaborators. The system will enable the measurement of mechanical properties across a broad range of biological specimens including single cells, organoids, tissue sections, extracellular matrices, biomaterials and engineered tissues. The University requires an integrated platform capable of combining high-resolution nanoindentation with optical microscopy and environmental control to permit long-term measurements of live biological samples under physiologically relevant conditions. The instrument must also support high-throughput experimentation using standard multi-well (read more...)

Summary: The University of Sheffield is undertaking a procurement process for an "Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence" aimed at quantitatively analysing mechanical properties of biological samples and biomaterials. This tender, classified under "Laboratory, optical and precision equipments (excl. glasses)", seeks to establish a high-throughput nanoindentation platform accompanied by installation, commissioning, and training services. The procurement falls under the open procedure method, with submissions required by 9th September 2026. This initiative, under the buying authority of the University, involves a budget allocation of £349,900 and is intended for delivery in Sheffield, UK, within the region of UKE32. The award is scheduled for completion by 18th September 2026, with the project start date set for 2nd November 2026.

5085.SH.JN - Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence

Description: The University of Sheffield, supported by the Wolfson Light Microscopy Facility (LMF), is seeking the supply, installation and commissioning of a high-throughput nanoindentation platform for the quantitative mechanical characterisation of biological samples and biomaterials. The instrument will provide a centrally managed research resource supporting investigators from across the Faculties of Health, Science and Engineering, together with external academic and industrial collaborators. The system will enable the measurement of mechanical properties across a broad range of biological specimens including single cells, organoids, tissue sections, extracellular matrices, biomaterials and engineered tissues. The University requires an integrated platform capable of combining high-resolution nanoindentation with optical microscopy and environmental control to permit long-term measurements of live biological samples under physiologically relevant conditions. The instrument must also support high-throughput experimentation using standard multi-well (read more...)

Summary: The University of Sheffield is undertaking a procurement process for an "Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence" aimed at quantitatively analysing mechanical properties of biological samples and biomaterials. This tender, classified under "Laboratory, optical and precision equipments (excl. glasses)", seeks to establish a high-throughput nanoindentation platform accompanied by installation, commissioning, and training services. The procurement falls under the open procedure method, with submissions required by 9th September 2026. This initiative, under the buying authority of the University, involves a budget allocation of £349,900 and is intended for delivery in Sheffield, UK, within the region of UKE32. The award is scheduled for completion by 18th September 2026, with the project start date set for 2nd November 2026.

5085.SH.JN - Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence

Description: The University of Sheffield, supported by the Wolfson Light Microscopy Facility (LMF), is seeking the supply, installation and commissioning of a high-throughput nanoindentation platform for the quantitative mechanical characterisation of biological samples and biomaterials. The instrument will provide a centrally managed research resource supporting investigators from across the Faculties of Health, Science and Engineering, together with external academic and industrial collaborators. The system will enable the measurement of mechanical properties across a broad range of biological specimens including single cells, organoids, tissue sections, extracellular matrices, biomaterials and engineered tissues. The University requires an integrated platform capable of combining high-resolution nanoindentation with optical microscopy and environmental control to permit long-term measurements of live biological samples under physiologically relevant conditions. The instrument must also support high-throughput experimentation using standard multi-well (read more...)

Summary: The University of Sheffield is undertaking a procurement process for an "Advanced Nano-Mechanical Characterisation System with Integrated Fluorescence" aimed at quantitatively analysing mechanical properties of biological samples and biomaterials. This tender, classified under "Laboratory, optical and precision equipments (excl. glasses)", seeks to establish a high-throughput nanoindentation platform accompanied by installation, commissioning, and training services. The procurement falls under the open procedure method, with submissions required by 9th September 2026. This initiative, under the buying authority of the University, involves a budget allocation of £349,900 and is intended for delivery in Sheffield, UK, within the region of UKE32. The award is scheduled for completion by 18th September 2026, with the project start date set for 2nd November 2026.

UKRI-6130 Single Photon Counting Confocal Microscope

Description: UKRI are looking to source an enhanced capability single-photon counting confocal microscope. The proposed system we are seeking should have the technical ability of a complex home-built system but usability of commercial microscope. The system will be used to measure dynamics of biomolecules in solution in the pico-second to nanosecond timeframe at the single-molecule level.

Summary: UK Research & Innovation (UKRI) is currently in the planning stage of procuring a single photon counting confocal microscope, detailed under the tender ID UKRI-6130. The procurement falls under the industry category of fluorescent microscopes and concerns the supply of goods, specifically targeting the UKH12 region in the United Kingdom. A preliminary market engagement has been scheduled, including a webinar event on 19th August 2026 via Microsoft Teams, with registration closing on 18th August 2026. The announcement and documentation surrounding this process were publicly released on 6th August 2026, and further communication updates are expected by 14th September 2026.

Benchtop Energy Dispersive X-Ray Fluorescence (EDXRF) analyser.

Description: The LJMU geography, climate and environmental sciences student cohorts are growing, and as a result we require higher capacity equipment to meet student's needs. Our current geochemical analysis set up includes X-Ray Fluorescence (XRF) analyser for non-destructive sample analysis, and is utilised by students for projects, and by researchers/academics. Currently, student using this in practical classes must run one sample at a time, with creates a backlog which completing practical tasks, however, with an increased analysis capacity, practical classes will run smoothly, and results will be available faster. For research, a similar backlog exists, and staff issues around light element sensitivity (such as Magnesium). As we wish to remain competitive in terms of student experience, and research, it is crucial we remain up to date with analytical equipment. (read more...)

Summary: Liverpool John Moores University is in the planning stage of a procurement process to acquire a Benchtop Energy Dispersive X-Ray Fluorescence (EDXRF) analyser. This procurement aligns with the university's goal to enhance its geochemical analysis capabilities, facilitating both student and research activities. The total estimated value of this procurement is £60,000. The process is under the 'goods' category, specifically involving detection and analysis apparatus, and it is situated within the UKD72 region. Interested parties must register and obtain documentation via In-tend, with submissions due by 21st August 2026. The formal contract is expected to run from 1st October 2026 to 30th September 2027.

Preliminary Market Engagement for 3D Reality Capture, Scanning and Digital Asset Recording Solution

Description: Carmarthenshire County Council wishes to undertake preliminary market engagement in relation to a potential requirement for a professional 3D reality capture solution capable of supporting surveying, spatial data capture, measured building survey work, CAD/BIM workflows and digital asset recording activities across the Authority. The requirement may include suitable scanning or imaging equipment, associated accessories, compatible software, licenses, training, implementation support, technical support, maintenance and related services. The Council is considering a potential requirement for a specialist 3D reality capture solution to support surveying, spatial data capture, point cloud production, CAD/BIM-related activity and digital asset recording. The purpose of this preliminary market engagement is to understand the range of solutions available and to gather information on technical capability, functionality, interoperability, data ownership, data hosting, software and licensing models, training, (read more...)

Summary: Carmarthenshire County Council is in the planning stage of a public procurement process for a "3D Reality Capture, Scanning and Digital Asset Recording Solution," with an initial focus on engaging the market and gathering relevant information. The council, located in Carmarthen, United Kingdom, is inviting suppliers to participate in preliminary market engagement before any formal tender process. This engagement is scheduled to conclude on 28 August 2026, and business users are encouraged to reach out to Shane Evans via email. The procurement falls under the goods category and pertains to specialised equipment such as lasers, surveying instruments, and mapping software. The expected contract period could start as early as 1 October 2026 and will potentially cover a year.

Supply, Delivery and Installation of Matrix Plasma Asher

Description: Background The UK urgently requires a sovereign, open-access advanced semiconductor packaging capability to close a well-evidenced market failure. Today, UK innovators in photonics and power electronics rely on overseas Outsourced Semiconductor Assembly and Test (OSAT) facilities for scaling to volume packaging, which fragments the supply chain, extends lead times, increases Intellectual Property (IP) leakage risk, and exposes critical technologies to geopolitical disruption. The National Centre for Advanced Semiconductor Packaging (NCASP) is the missing link that converts research excellence into manufacturable products. NCASP is creating an integrated, industry-led scale-up facility that connects UK device design to domestic, high-volume packaging, test and metrology - reducing time-to-market and anchoring value onshore. Description The University of Strathclyde has a requirement for a Matrix Plasma Asher.

Summary: The University of Strathclyde is seeking bids for the supply, delivery, and installation of a Matrix Plasma Asher, a vital component in the field of laboratory, optical, and precision equipment. This procurement is part of an initiative to establish an advanced semiconductor packaging capability within the UK, addressing significant market needs and reducing reliance on overseas facilities. The tender is currently in the Tender stage, with an open procurement method that encourages wide participation. Interested parties can submit their bids electronically. The tender period closes on 9th September 2026, at noon (BST), and the associated works or services are expected to be delivered in the Glasgow region (UKM82).

Trace, Evaluate and Reinforce (TracER)

Description: TracER is intended to improve assurance of Explosive Trace Detection (ETD) screening to detect explosive trace contamination.

Summary: The Department for Transport, based in London, is conducting a procurement process titled "Trace, Evaluate and Reinforce (TracER)" under OCID: ocds-h6vhtk-06c9a2. This project aims to enhance the assurance of Explosive Trace Detection screening. It falls under multiple industry categories, including chemical, security, medical equipment, and public utilities, among others, making it relevant to a variety of sectors. The process is in the tender stage and will proceed with an open procurement method, designed as a below-threshold open competition. Important dates include the tender period ending on 17th August 2026 and the contract period running from 2nd November 2026 to 31st October 2027, with potential service delivery locations in both the United Kingdom and the United States.

Supply, Delivery and Installation of Inductively Coupled Plasma Chemical Vapour Deposition System

Description: Background The UK urgently requires a sovereign, open-access advanced semiconductor packaging capability to close a well-evidenced market failure. Today, UK innovators in photonics and power electronics rely on overseas Outsourced Semiconductor Assembly and Test (OSAT) facilities for scaling to volume packaging, which fragments the supply chain, extends lead times, increases Intellectual Property (IP) leakage risk, and exposes critical technologies to geopolitical disruption. The National Centre for Advanced Semiconductor Packaging (NCASP) is the missing link that converts research excellence into manufacturable products. NCASP is creating an integrated, industry-led scale-up facility that connects UK device design to domestic, high-volume packaging, test and metrology - reducing time-to-market and anchoring value onshore. Description The University of Strathclyde has a requirement for an Inductively Coupled Plasma Chemical Vapour Deposition System.

Summary: The University of Strathclyde is conducting a tender process for the supply, delivery, and installation of an Inductively Coupled Plasma Chemical Vapour Deposition System under an open procedure, classified within the CPV category for laboratory, optical, and precision equipment. This tender, identified by the code UOS-43657-2026, is in its active stage, with critical dates including a tender submission deadline on 9th September 2026 at 12:00 pm, when bids will be opened. The university, located in Glasgow, seeks to address a significant market need by bolstering sovereign semiconductor packaging capabilities to reduce reliance on overseas facilities. The project also incorporates community benefits provisions as part of the procurement process.