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Hysbysiad o Ddyfarnu Contract

Next-generation Sequencing of restriction-Site-Associated DNA (RAD-Seq) from 1300 Miscanthus Genotyp

  • Cyhoeddwyd gyntaf: 07 Chwefror 2017
  • Wedi'i addasu ddiwethaf: 07 Chwefror 2017
  • Cofnodi Diddordeb

     

  • Efallai na fydd y ffeil hon yn gwbl hygyrch.

  •  

Nid yw'r prynwr yn defnyddio'r wefan hon i weinyddu'r hysbysiad.

I gofnodi eich diddordeb neu gael gwybodaeth neu ddogfennau ychwanegol, darllenwch y cyfarwyddiadau yn Nhestun Llawn yr Hysbysiad. (NODER: Nid oes angen ymateb i Hysbysiadau Dyfarnu Contractau a Hysbysiadau Gwybodaeth Ymlaen Llaw fel arfer)

Cynnwys

Crynodeb

OCID:
ocds-kuma6s-058737
Cyhoeddwyd gan:
Aberystwyth University
ID Awudurdod:
AA1009
Dyddiad cyhoeddi:
07 Chwefror 2017
Dyddiad Cau:
-
Math o hysbysiad:
Hysbysiad o Ddyfarnu Contract
Mae ganddo ddogfennau:
Nac Ydi
Wedi SPD:
Nac Ydi
Mae ganddo gynllun lleihau carbon:
AMH

Crynodeb

The global demands for food and renewable energy are increasing at currently unsustainable rates that are expected to accelerate in the future. A major challenge for plant breeders is therefore to develop bioenergy crops that ideally (1) are highly productive, but carbon negative; (2) can be grown under a wide range of environmental conditions, including marginal lands, but with minimal agronomic inputs (e.g., fertilisers, pesticides, irrigation); (3) produce biomass that can efficiently be converted to biofuels; and (4) can be deployed very rapidly. However, most existing energy crops fail to meet at least one of these requirements. Furthermore, traditional breeding approaches, while certain to be effective, tend to be relatively slow. One way to accelerate breeding cycles is to use diagnostic molecular markers (DNA polymorphisms) to select superior plants at a juvenile age, instead of having to wait for years before direct evaluations can be made. However, an emerging consensus from studies that aim to identify such marker-trait correlations is that genetic variation for most phenotypic traits is underpinned by hundreds of DNA polymorphisms, making it impossible to cherry-pick superior germplasm based on a handful of markers. A more practical approach is therefore to use very large numbers of molecular markers, or even entire genome sequences, to predict phenotypes. This approach, known as genomic selection, is becoming increasingly affordable because of recent breakthroughs in sequencing technology and is believed to have great potential for accelerating crop development and optimisation. As part of a BBSRC-funded project, we will apply marker-assisted approaches to accelerate a world-leading breeding programme for the promising energy crop Miscanthus. We have produced several biparental populations that have been extensively phenotypes for commercially relevant traits including canopy duration, stem architecture and crop quality. We aim to identify the associations between molecular markers and traits of interest and determine how robust these associations are by comparing similar analysis across many biparental crosses. To achieve this goal, we will first acquire prerequisite information on genome-wide patterns of DNA polymorphism. Then, we will characterise the genomic architectures of the targeted phenotypic traits to identify marker loci associated with phenotypic variation. To complete the objectives of these projects, we require extensive DNA polymorphism data that should meet the following criteria: 1. Data should be obtained through next-generation sequencing of restriction-site-associated DNA (RAD-Seq) from 850 Miscanthus genotypes; 2. Data should be based on 10-15K RAD-Seq tags; 3. Data should be delivered as standard bioinformatics output (.fastq) files within 25 weeks of receiving DNA templates; 4. Average sequence coverage per tag per individual should exceed 10-fold. The above quote will be assessed 70% on Price and 30% on Quality from a total available score of 1000, 700 marks available for the commercial element and 300 marks available for the technical element. Please see attached schedule of prices for your completion. The technical element of the overall score will be assed based on the following questions and criteria: The following three questions each account for 10% of your overall score or 100 available marks per question: Q1 - Data should be based on 10-15K RAD-Seq tags; possible answers and related scores: Under 10-15K = 0 marks or 0% 10-15K = 20 marks or 20% 15-20K = 30 marks or 30% 20-25K = 40 marks or 40% 25-30K = 50 marks or 50% 30-35K = 60 marks or 60% 35-40K = 70 marks or 70% 40-40K = 80 marks or 80% 45-50K = 100 marks or 100% Q2 - Data should be delivered as standard bioinformatics output (.fastq) files within 25 weeks of receiving DNA templates; possible answers and related scores: Over 35 weeks = 0 marks or 0% 35 weeks = 25 marks or 25% 30 weeks = 50 marks or 50% 25

Testun llawn y rhybydd

HYSBYSIAD O DDYFARNU CONTRACT - CENEDLAETHOL

SERVICES

1 Manylion yr Awdurdod

1.1

Enw a Chyfeiriad yr Awdurdod


Aberystwyth University

Procurement, c/o Finance Office, Student Welcome Centre, Penglais Campus,

Aberystwyth

SY23 3FB

UK

Lee Pereira

+44 1970628716

lep27@aber.ac.uk

2 Manylion y Contract

2.1

Teitl

Next-generation Sequencing of restriction-Site-Associated DNA (RAD-Seq) from 1300 Miscanthus Genotyp

2.2

Disgrifiad o'r contract

The global demands for food and renewable energy are increasing at currently unsustainable rates that are expected to accelerate in the future. A major challenge for plant breeders is therefore to develop bioenergy crops that ideally (1) are highly productive, but carbon negative; (2) can be grown under a wide range of environmental conditions, including marginal lands, but with minimal agronomic inputs (e.g., fertilisers, pesticides, irrigation); (3) produce biomass that can efficiently be converted to biofuels; and (4) can be deployed very rapidly. However, most existing energy crops fail to meet at least one of these requirements. Furthermore, traditional breeding approaches, while certain to be effective, tend to be relatively slow. One way to accelerate breeding cycles is to use diagnostic molecular markers (DNA polymorphisms) to select superior plants at a juvenile age, instead of having to wait for years before direct evaluations can be made. However, an emerging consensus from studies that aim to identify such marker-trait correlations is that genetic variation for most phenotypic traits is underpinned by hundreds of DNA polymorphisms, making it impossible to cherry-pick superior germplasm based on a handful of markers. A more practical approach is therefore to use very large numbers of molecular markers, or even entire genome sequences, to predict phenotypes. This approach, known as genomic selection, is becoming increasingly affordable because of recent breakthroughs in sequencing technology and is believed to have great potential for accelerating crop development and optimisation.

As part of a BBSRC-funded project, we will apply marker-assisted approaches to accelerate a world-leading breeding programme for the promising energy crop Miscanthus. We have produced several biparental populations that have been extensively phenotypes for commercially relevant traits including canopy duration, stem architecture and crop quality. We aim to identify the associations between molecular markers and traits of interest and determine how robust these associations are by comparing similar analysis across many biparental crosses. To achieve this goal, we will first acquire prerequisite information on genome-wide patterns of DNA polymorphism. Then, we will characterise the genomic architectures of the targeted phenotypic traits to identify marker loci associated with phenotypic variation.

To complete the objectives of these projects, we require extensive DNA polymorphism data that should meet the following criteria:

1. Data should be obtained through next-generation sequencing of restriction-site-associated DNA (RAD-Seq) from 850 Miscanthus genotypes;

2. Data should be based on 10-15K RAD-Seq tags;

3. Data should be delivered as standard bioinformatics output (.fastq) files within 25 weeks of receiving DNA templates;

4. Average sequence coverage per tag per individual should exceed 10-fold.

The above quote will be assessed 70% on Price and 30% on Quality from a total available score of 1000, 700 marks available for the commercial element and 300 marks available for the technical element. Please see attached schedule of prices for your completion. The technical element of the overall score will be assed based on the following questions and criteria:

The following three questions each account for 10% of your overall score or 100 available marks per question:

Q1 - Data should be based on 10-15K RAD-Seq tags; possible answers and related scores:

Under 10-15K = 0 marks or 0%

10-15K = 20 marks or 20%

15-20K = 30 marks or 30%

20-25K = 40 marks or 40%

25-30K = 50 marks or 50%

30-35K = 60 marks or 60%

35-40K = 70 marks or 70%

40-40K = 80 marks or 80%

45-50K = 100 marks or 100%

Q2 - Data should be delivered as standard bioinformatics output (.fastq) files within 25 weeks of receiving DNA templates; possible answers and related scores:

Over 35 weeks = 0 marks or 0%

35 weeks = 25 marks or 25%

30 weeks = 50 marks or 50%

25 weeks = 75 marks or 75%

20 weeks = 100 marks or 100%

Q3 - Average sequence coverage per tag per individual should exceed 10-fold; possible answers and related scores:

Less than 10-fold = 0 marks or 0%

10-fold = 20 marks or 20%

20-fold = 40 marks or 40%

30-fold = 60 marks or 60%

40-fold = 80 marks or 80%

50-fold = 100 marks or 100%

Commercial Response Notes and Guidance:

The pricing schedule that you will need to complete is based on services we have been provided in the past and is not intended to show favouritism or provide any advantage to any particular bidder. We will accept alternatives to the products/services described in the pricing schedule on the understanding that equivalence is demonstrated by the bidder.

2.3

Cod a Dosbarthiad yr Hysbysiad

73000000 Research and development services and related consultancy services
77000000 Agricultural, forestry, horticultural, aquacultural and apicultural services
1014 South West Wales (Carmarthenshire, Pembrokeshire, Ceredigion)

2.4

Amcangyfrif o Gyfanswm Gwerth

34404 GBP

3 Gweithdrefn

3.1

Math o Weithdrefn

Un cam

4 Dyfarnu Contract

4.1

Cynigwyr Llwyddiannus

4.1.1

Enw a Chyfeiriad y cyflenwr, contractwr neu ddarparwr gwasanaeth llwyddiannus





Floragenex

4725 Village Plaza Loop,

Eugene

97401

US




5 Gwybodaeth Arall

5.1

Rhif cyfeirnod a roddwyd i'r hysbysiad gan yr awdurdod contractio

AU/2016/140/DNA

5.2

Dyddiad Dyfarnu'r Contract

  07 - 02 - 2017

5.3

Nifer y tendrau a dderbyniwyd

3

5.4

Gwybodaeth Arall

(WA Ref:62659)

5.5

Dogfennaeth Ychwanegol

Dd/g

5.6

Dyddiad cyhoeddi'r hysbysiad hwn:

  07 - 02 - 2017

Codio

Categorïau nwyddau

ID Teitl Prif gategori
77000000 Gwasanaethau amaethyddol, coedwigaeth, garddwriaeth, dyframaeth a gwenynyddiaeth Agriculture and Food
73000000 Gwasanaethau ymchwil a datblygu a gwasanaethau ymgynghori cysylltiedig Research and Development

Lleoliadau Dosbarthu

ID Disgrifiad
1014 De-orllewin Cymru (Sir Gaerfyrddin, Sir Benfro, Ceredigion)

Cyfyngiadau Rhanbarthol ar y Rhybuddion

Mae’r prynwr wedi cyfyngu’r rhybuddion ar gyfer yr hysbysiad hwn i gyflenwyr yn y rhanbarthau canlynol.

ID Disgrifiad
Nid oes cyfyngiadau ar y rhybuddion ar gyfer yr hysbysiad hwn.

Teulu dogfennau

Manylion hysbysiad
Dyddiad cyhoeddi:
08 Rhagfyr 2016
Dyddiad Cau:
22 Rhagfyr 2016 00:00
Math o hysbysiad:
Hysbysiad o Gontract
Enw Awdurdod:
Aberystwyth University
Dyddiad cyhoeddi:
07 Chwefror 2017
Math o hysbysiad:
Hysbysiad o Ddyfarnu Contract
Enw Awdurdod:
Aberystwyth University

Ynglŷn â'r prynwr

Prif gyswllt:
lep27@aber.ac.uk
Cyswllt gweinyddol:
N/a
Cyswllt technegol:
N/a
Cyswllt arall:
N/a

Gwybodaeth bellach

Dyddiad Manylion
Nid oes unrhyw wybodaeth bellach wedi'i lanlwytho.

0800 222 9004

Mae'r llinellau ar agor rhwng 8:30am a 5pm o ddydd Llun i ddydd Gwener.

Rydym yn croesawu galwadau'n Gymraeg.

We welcome calls in Welsh.