Published date: 11 September 2020

Last edited date: 21 September 2020

Closed opportunity - This means that the contract is currently closed. The buying department may be considering suppliers that have already applied, or no suitable offers were made.



Closing: 5 October 2020, 12pm

Contract summary

Industry

  • Laboratory, optical and precision equipments (excl. glasses) - 38000000

Location of contract

M1 7HS

Value of contract

£0 to £300,000

Procurement reference

2020-1680-CVD-JT-PC

Published date

11 September 2020

Closing date

5 October 2020

Closing time

12pm

Contract start date

29 October 2020

Contract end date

31 March 2021

Contract type

Supply contract

Procedure type

Open procedure (OJEU)

Any interested supplier may submit a tender in response to an opportunity notice.

OJEU (Official Journal of the European Union) procedures are valued above a certain financial threshold.

Contract is suitable for SMEs?

Yes

Contract is suitable for VCSEs?

No


Description

Tri-Structural Isotropic (TRISO) nuclear fuel is a coated particle fuel form consisting of a fissile uranium dioxide core surrounded by layers of pyrolytic carbon and silicon carbide. This fuel is intended for use in High-Temperature Reactors (HTRs), a reactor design operating at a temperature well in excess of current reactor designs, up to 1000°C as opposed to 600°C. Fabrication of TRISO fuel has historically been accomplished by use of a Fluidised-Bed Chemical Vapour Deposition coater (FBCVD) which uses chemical reactions from appropriate precursor reagents to produce the protective layers surrounding the uranium dioxide core of the particle.

A system to manufacture these coated particles will allow study of these fuel forms, allowing the effects of process variables on the properties of the resulting particles.

The supplied system must be capable of depositing carbon and silicon carbide layers on microspheres, approximately 0.5 mm in diameter, and ensure that any reaction products in the exhaust gas stream are rendered safe before discharge. The system must also be capable of producing a fluidised bed from the initial uranium dioxide kernels, which have a density of up to 10.97 g/cm3. Additionally due to the radioactive nature of the work the system must be designed such that no radioactive material can be lost during loading, deposition, and unloading.


More information

Links

Additional text

To express an interest in this project please visit the website below where you will need to register to obtain tender documentation.

https://in-tendhost.co.uk/universityofmanchester/aspx/Home

Funding Type (WEFO or EU) : The Department of Business, Energy and Industrial Strategy (BEIS)

Funding Description

Funding for the proposed system is provided by the Sir Henry Royce Institute, and The Department of Business, Energy and Industrial Strategy (BEIS), through the Nuclear Innovation Programme

Is a Recurrent Procurement Type? : No


About the buyer

Contact name

Paul Carter

Address

Manchester
Manchester
Manchester
M1 7HS
United Kingdom

Telephone

0161 275 2207

Email

paul.carter-2@manchester.ac.uk


Closing: 5 October 2020, 12pm