logo

Laser Induced Desorption System for Measuring First Wall Retention in STEP

Sector: Nuclear • Location: United Kingdom

Source: Open Contracting Data Standard (OCDS)

Tender
Active

UK Fusion Energy Ltd (UKFE) is seeking to appoint a supplier to undertake the concept design of a system capable of in-situ quantification of tritium retention within plasma-facing (first wall) materials for the Spherical Tokamak for Energy Production (STEP) programme. STEP is the UK's flagship fusion energy programme, sponsored by the Department for Energy Security and Net Zero (DESNZ), and aims

Status
Bidding
Sector
Nuclear, Geothermal, Manufacturing (Industrial), Power Generation (CCGT), Road
Location
United Kingdom
Updated
3 Nov 2026
Source
Open Contracting Data Standard (OCDS)

ConstructChat

Ask ConstructChat about Laser Induced Desorption System for Measuring First Wall Retention in STEP

Pick a question to edit it, or write your own.

First answer free · no account

I am a

Tender Information FAQ

Tender Information

3 Q
The tender “Laser Induced Desorption System for Measuring First Wall Retention in STEP” is a tender record in Taiyo, linked to the Nuclear sector. It is issued for works, goods, or services related to United Kingdom.

Participants

Not available for this record.

Status

Original status

active

Taiyo status

Bidding

Taiyo last update

2026-11-03

Contact

Not available for this record.

Description

Description

UK Fusion Energy Ltd (UKFE) is seeking to appoint a supplier to undertake the concept design of a system capable of in-situ quantification of tritium retention within plasma-facing (first wall) materials for the Spherical Tokamak for Energy Production (STEP) programme. STEP is the UK's flagship fusion energy programme, sponsored by the Department for Energy Security and Net Zero (DESNZ), and aims to design and construct the UK's first prototype fusion power plant capable of demonstrating net energy production, fuel self-sufficiency and a viable route to plant maintenance. UKFE, a wholly owned subsidiary of the United Kingdom Atomic Energy Authority (UKAEA), is responsible for delivering the programme. A key challenge for future fusion power plants is the management of tritium, which serves as a fuel for the deuterium-tritium fusion reaction. Tritium is both radioactive and scarce, making accurate measurement of its retention within plasma-facing components essential to demonstrating fuel self-sufficiency, supporting tritium accountancy, and monitoring the condition of first wall materials throughout plant operation. The successful supplier will develop a concept design for a measurement system capable of operating within the demanding environment of a fusion power plant, taking into account constraints such as neutron radiation, strong magnetic fields, thermal loading, limited installation space, and exposure to radioactive materials. This procurement represents the initial concept design phase of a wider programme of work. Subject to future funding and programme approvals, the outputs of this contract are expected to inform subsequent detailed design activities, technology maturation, de-risking and testing, and ultimately the development of an integrated tritium measurement system for deployment within the STEP tokamak. For more information about this opportunity, please visit the eSourcing portal at: https://ukifs.delta-esourcing.com/tenders/UK-UK-Abingdon:-Engineering-services./GHYYZHV8Q5 To respond to this opportunity, please click here: https://ukifs.delta-esourcing.com/respond/GHYYZHV8Q5

Location

Country

United Kingdom (UK)

Source

Source

Open Contracting Data Standard (OCDS)

URL

More Details

Record type

Tender

Sector

Nuclear, Geothermal, Manufacturing (Industrial), Power Generation (CCGT), Road

Article published date

2026-08-02

More on this tender

Research

Free account

View all details

You are reading the public part. A free account opens the rest:

  • Every detail on this tender
  • News and media coverage
  • Technical research
View all details

Free account · no card · lands you back on this tender