{"bekendtgoerelseNoegle":{"noticeId":{"value":"3365250a-d1c3-459b-9595-6b676fc6188e"},"noticeVersion":{"value":"01"},"noticePublicationNumber":{"value":"00793279-2025"}},"htmlDA":"\n\n \n 1 Køber1.1 KøberOfficielt navn: Aarhus Universitet\n Køberens retlige status: Offentligretligt organ\n Den ordregivende myndigheds aktivitet: Uddannelse\n \n \n 2 Procedure2.1 ProcedureTitel: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes\n Beskrivelse: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n Identifikator for proceduren: a669543b-e939-4ac8-ba64-89fb1e5b9509\n Intern ID: f7178430-8fda-4e19-a5d9-1effa4556eae\n Udbudsprocedure: Udbud med forhandling uden forudgående offentliggørelse\n 2.1.1 FormålKontraktens hovedformål: Varer\n Primær klassifikation (cpv): 38000000 Laboratorieudstyr, optisk udstyr og præcisionsudstyr (ikke briller)\n \n 2.1.2 UdførelsesstedPostadresse: Gustav Wieds Vej 10C, building 3130 \n \n \n Landsdel (NUTS): Østjylland (DK042)\n \n \n 2.1.4 Generelle oplysninger\n \n \n \n \n 5 Delkontrakt5.1 Teknisk ID for delkontrakten: LOT-0000Titel: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes\n Beskrivelse: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n Intern ID: 1299b8a6-4c1d-4089-a683-4e8aaa998fee\n 5.1.1 FormålKontraktens hovedformål: Varer\n Primær klassifikation (cpv): 38000000 Laboratorieudstyr, optisk udstyr og præcisionsudstyr (ikke briller)\n \n 5.1.2 UdførelsesstedPostadresse: Gustav Wieds Vej 10C, building 3130 \n \n \n Landsdel (NUTS): Østjylland (DK042)\n \n \n \n 5.1.6 Generelle oplysningerIndkøbsprojekt, der ikke finansieres med EU-midler\n Udbuddet er omfattet af aftalen om offentlige udbud (GPA): ja\n \n 5.1.10 TildelingskriterierKriterium:\n \n Beskrivelse: An instrument capable of nanocalorimetric detection, specifically at the level of\n less than 100 nW, is essential to reliably detect the faint heat signals accompanying\n CO₂ binding, reduction, and catalyst activation. Such sensitivity must be supported\n by ultra-high thermal stability, on the order of one millionth of a degree Celsius,\n over the extended time frames required for the study of long-lived reactions. It is\n equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.\n Kategori for tildelingskriteriet tærskel: Vægtning (procentdel, præcis)Tildelingskriterium talværdi: 100\n \n \n \n 5.1.15 Teknikker\n Oplysninger om det dynamiske indkøbssystem:Intet dynamisk indkøbssystem\n \n \n 5.1.16 Yderligere oplysninger, mægling og gennemgangOrganisation med ansvar for klager: Klagenævnet for udbud\n Oplysninger om klagefrister: Following the notification, a standstill period of 10 calendar days will be held in\n accordance to paragraph 3 of Act No. 593 of 2 June 2016 on the Danish Act on the Complaints\n Board for public Procurement. This implies that the Contracting Authority cannot sign\n the Contract with the winning Tenderer before the standstill period has expired.
In\n case of complaints about tenders or decisions, e.g. award of contracts covered by\n Section II or III in the Danish Public Procurement Act must be submitted to the Complaints\n Board for Public Procurement (Klagenævnet for udbud) within 45 calendar days from\n the day after the contractor published a notice in the Official Journal on the conclusion\n of a contract. At the latest concurrently with submission of an appeal to the Complaints\n Board for Public Procurement, the complainant must inform the Contracting Authority\n of the alleged infringement, and whether the appeal is to be referred to the board.\n Organisation, der leverer yderligere oplysninger om klageprocedurerne: Konkurrence- og Forbrugerstyrelsen\n \n \n \n 6 ResultaterVærdien af alle kontrakter tildelt i denne bekendtgørelse: 1.691.760 Dansk krone\n Direkte tildeling:Begrundelse for direkte tildeling: Kontrakten kan kun tildeles af en bestemt økonomisk aktør på grund af manglende konkurrence af tekniske årsager\n Anden begrundelse: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n \n 6.1 Resultat delkontrakt-ID: LOT-0000Der er udvalgt mindst én vinder.\n 6.1.2 Oplysninger om vinderneVinder:Officielt navn: Malvern Panalytical\n \n Tilbud – Identifikator: 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction, and\n related catalytic and materials processes\n ID for delkontrakt eller gruppe af delkontrakter: LOT-0000\n Værdien af tilbuddet: 1.691.760 Dansk krone\n \n Kontraktoplysninger:Identifikator for kontrakten: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes - Malvern Panalytical\n Dato for indgåelse af kontrakten: 27-11-2025\n \n \n \n 6.1.4 Statistiske oplysningerResumé af de klager som køberen har modtaget:\n \n Modtagne tilbud og ansøgninger om deltagelse:Type modtagne indgivelser: TilbudAntal modtagne tilbud og ansøgninger om deltagelse: 1\n \n \n \n \n \n 8 Organisationer8.1 ORG-0001Officielt navn: Aarhus Universitet\n Registreringsnummer: 31119103\n Postadresse: Nordre Ringgade 1 \n \n \n Landsdel (NUTS): Østjylland (DK042)\n \n Enhed: Ann Sophie Steffensen\n \n \n Internetadresse: https://www.au.dk/\n Denne organisations roller:\n \n \n 8.1 ORG-0002Officielt navn: Klagenævnet for udbud\n Registreringsnummer: 37795526\n \n \n \n Landsdel (NUTS): Vestjylland (DK041)\n \n Enhed: Klagenævnet for udbud\n E-mail: klfu@naevneneshus.dk\n \n Internetadresse: https://erhvervsstyrelsen.dk/klagenaevnet-for-udbud\n Denne organisations roller:Organisation med ansvar for klager\n \n \n 8.1 ORG-0003Officielt navn: Konkurrence- og Forbrugerstyrelsen\n Registreringsnummer: 10294819\n Postadresse: Carl Jacobsens Vej 35 \n \n \n Landsdel (NUTS): Byen København (DK011)\n \n Enhed: Konkurrence- og Forbrugerstyrelsen\n \n \n Internetadresse: https://www.kfst.dk\n Denne organisations roller:Organisation, der leverer yderligere oplysninger om klageprocedurerne\n \n \n 8.1 ORG-0004Officielt navn: Malvern Panalytical\n Den økonomiske operatørs størrelse: Mikrovirksomhed, lille eller mellemstor virksomhed\n Registreringsnummer: 31756154\n \n \n Landsdel (NUTS): Københavns omegn (DK012)\n \n Denne organisations roller:\n Vinder af disse delkontrakter: LOT-0000\n \n \n 8.1 ORG-0005Officielt navn: Mercell Holding ASA\n Registreringsnummer: 980921565\n Postadresse: Askekroken 11 \n \n \n Landsdel (NUTS): Oslo (NO081)\n \n \n E-mail: publication@mercell.com\n \n \n Internetadresse: http://mercell.com/\n Denne organisations roller:\n \n \n \n Oplysninger om bekendtgørelsenBekendtgørelsens ID: 3365250a-d1c3-459b-9595-6b676fc6188e - 01\n \n Bekendtgørelsestype: Bekendtgørelse om indgåede kontrakter eller koncessionstildeling – standardordningen\n Afsendelsesdato for bekendtgørelsen: 27-11-2025 13:19 +00:00\n Dato for afsendelse af bekendtgørelsen (eSender): 27-11-2025 14:05 +00:00\n Bekendtgørelsens officielle sprog: engelsk \n Bekendtgørelsesnummer: 00793279-2025\n \n Offentliggørelsesdato: 01-12-2025\n \n \n","htmlEN":"\n\n \n 1 Buyer1.1 BuyerOfficial name: Aarhus Universitet\n Legal type of the buyer: Body governed by public law\n Activity of the contracting authority: Education\n \n \n 2 Procedure2.1 ProcedureTitle: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes\n Description: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n Procedure identifier: a669543b-e939-4ac8-ba64-89fb1e5b9509\n Internal identifier: f7178430-8fda-4e19-a5d9-1effa4556eae\n Type of procedure: Negotiated without prior call for competition\n 2.1.1 PurposeMain nature of the contract: Supplies\n Main classification (cpv): 38000000 Laboratory, optical and precision equipments (excl. glasses)\n \n 2.1.2 Place of performancePostal address: Gustav Wieds Vej 10C, building 3130 \n \n \n Country subdivision (NUTS): Østjylland (DK042)\n \n \n 2.1.4 General information\n \n \n \n \n 5 Lot5.1 Lot technical ID: LOT-0000Title: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes\n Description: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n Internal identifier: 1299b8a6-4c1d-4089-a683-4e8aaa998fee\n 5.1.1 PurposeMain nature of the contract: Supplies\n Main classification (cpv): 38000000 Laboratory, optical and precision equipments (excl. glasses)\n \n 5.1.2 Place of performancePostal address: Gustav Wieds Vej 10C, building 3130 \n \n \n Country subdivision (NUTS): Østjylland (DK042)\n \n \n \n 5.1.6 General informationProcurement Project not financed with EU Funds.\n The procurement is covered by the Government Procurement Agreement (GPA): yes\n \n 5.1.10 Award criteriaCriterion:\n \n Description: An instrument capable of nanocalorimetric detection, specifically at the level of\n less than 100 nW, is essential to reliably detect the faint heat signals accompanying\n CO₂ binding, reduction, and catalyst activation. Such sensitivity must be supported\n by ultra-high thermal stability, on the order of one millionth of a degree Celsius,\n over the extended time frames required for the study of long-lived reactions. It is\n equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.\n Category of award threshold criterion: Weight (percentage, exact)Award criterion number: 100\n \n \n \n 5.1.15 Techniques\n Information about the dynamic purchasing system:No dynamic purchase system\n \n \n 5.1.16 Further information, mediation and reviewReview organisation: Klagenævnet for udbud\n Information about review deadlines: Following the notification, a standstill period of 10 calendar days will be held in\n accordance to paragraph 3 of Act No. 593 of 2 June 2016 on the Danish Act on the Complaints\n Board for public Procurement. This implies that the Contracting Authority cannot sign\n the Contract with the winning Tenderer before the standstill period has expired.
In\n case of complaints about tenders or decisions, e.g. award of contracts covered by\n Section II or III in the Danish Public Procurement Act must be submitted to the Complaints\n Board for Public Procurement (Klagenævnet for udbud) within 45 calendar days from\n the day after the contractor published a notice in the Official Journal on the conclusion\n of a contract. At the latest concurrently with submission of an appeal to the Complaints\n Board for Public Procurement, the complainant must inform the Contracting Authority\n of the alleged infringement, and whether the appeal is to be referred to the board.\n Organisation providing more information on the review procedures: Konkurrence- og Forbrugerstyrelsen\n \n \n \n 6 ResultsValue of all contracts awarded in this notice: 1.691.760 Danish krone\n Direct award:Justification for direct award: The contract can be provided only by a particular economic operator because of an absence of competition for technical reasons\n Other justification: The Department of Chemistry and the CORC Center at Aarhus University has a strong\n international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms,\n where accurate thermodynamic and kinetic measurements are vital for scientific advancement.\n Modern global research places increasing emphasis on designing materials and catalysts\n capable of efficiently capturing and converting CO₂, making it critical to resolve\n minute changes in heat flow and to maintain precise experimental control. To optimize\n and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ\n advanced isothermal nanocalorimetry. This technique provides detailed insight into\n the thermodynamics of CO₂ adsorption and binding to functional materials, including\n metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements\n for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst\n surfaces; these steps often involve subtle and overlapping thermal events. Furthermore,\n the study of proton-coupled electron transfer processes and intermediate formation\n in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel,\n multi-channel screening, which enables comparative analysis of molecular and heterogeneous\n catalyst candidates. Quantification of transient heat signatures, as demonstrated\n in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial\n for differentiating reaction pathways and evaluating catalytic efficiency.
In\n summary, an instrument capable of nanocalorimetric detection, specifically at the\n level of less than 100 nW, is essential to reliably detect the faint heat signals\n accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must\n be supported by ultra-high thermal stability, on the order of one millionth of a degree\n Celsius, over the extended time frames required for the study of long-lived reactions.\n It is equally critical to enable comparisons among samples by analyzing them simultaneously.\n Finally, the ability to conduct precise titration and multi-phase experiments is fundamental,\n that is why the instrument should be equipped with an automated liquid and gas sample\n handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes\n at defined intervals, which is indispensable for mechanistic, stepwise studies under\n real catalytic conditions.
No other commercially available microcalorimeter offers\n the unique combination of nanowatt sensitivity, modular throughput through multi-channel\n parallel operation, broad temperature range, and configurational flexibility that\n is found in the TAM IV.\n \n 6.1 Result lot ldentifier: LOT-0000At least one winner was chosen.\n 6.1.2 Information about winnersWinner:Official name: Malvern Panalytical\n \n Tender identifier: 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction, and\n related catalytic and materials processes\n Identifier of lot or group of lots: LOT-0000\n Value of the tender: 1.691.760 Danish krone\n \n Contract information:Identifier of the contract: Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction,\n and related catalytic and materials processes - Malvern Panalytical\n Date of the conclusion of the contract: 27-11-2025\n \n \n \n 6.1.4 Statistical informationSummary of the review requests the buyer received:Number of complainants: 0\n \n Received tenders or requests to participate:Type of received submissions: TendersNumber of tenders or requests to participate received: 1\n \n \n \n \n \n 8 Organisations8.1 ORG-0001Official name: Aarhus Universitet\n Registration number: 31119103\n Postal address: Nordre Ringgade 1 \n \n \n Country subdivision (NUTS): Østjylland (DK042)\n \n Contact point: Ann Sophie Steffensen\n \n \n Internet address: https://www.au.dk/\n Roles of this organisation:\n \n \n 8.1 ORG-0002Official name: Klagenævnet for udbud\n Registration number: 37795526\n Postal address: Toldboden 2 \n \n \n Country subdivision (NUTS): Vestjylland (DK041)\n \n Contact point: Klagenævnet for udbud\n Email: klfu@naevneneshus.dk\n \n Internet address: https://erhvervsstyrelsen.dk/klagenaevnet-for-udbud\n Roles of this organisation:\n \n \n 8.1 ORG-0003Official name: Konkurrence- og Forbrugerstyrelsen\n Registration number: 10294819\n Postal address: Carl Jacobsens Vej 35 \n \n \n Country subdivision (NUTS): Byen København (DK011)\n \n Contact point: Konkurrence- og Forbrugerstyrelsen\n \n \n Internet address: https://www.kfst.dk\n Roles of this organisation:Organisation providing more information on the review procedures\n \n \n 8.1 ORG-0004Official name: Malvern Panalytical\n Size of the economic operator: Micro, small, or medium\n Registration number: 31756154\n \n \n Country subdivision (NUTS): Københavns omegn (DK012)\n \n Roles of this organisation:\n Winner of these lots: LOT-0000\n \n \n 8.1 ORG-0005Official name: Mercell Holding ASA\n Registration number: 980921565\n Postal address: Askekroken 11 \n \n \n Country subdivision (NUTS): Oslo (NO081)\n \n \n Email: publication@mercell.com\n \n \n Internet address: http://mercell.com/\n Roles of this organisation:\n \n \n \n Notice informationNotice identifier/version: 3365250a-d1c3-459b-9595-6b676fc6188e - 01\n \n Notice type: Contract or concession award notice – standard regime\n Notice dispatch date: 27-11-2025 13:19 +00:00\n Notice dispatch date (eSender): 27-11-2025 14:05 +00:00\n Languages in which this notice is officially available: English \n Notice publication number: 00793279-2025\n OJ S issue number: 231/2025\n Publication date: 01-12-2025\n \n \n","opsummeringDA":{"card":{"titel":"Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction, and related catalytic and materials processes","ordregiver":"Aarhus Universitet","ordregiverId":"ORG-31119103","ordregiverIdDatavasket":"31119103","publiceringsdato":"2025-12-01+01:00","cpvKode":"38000000","cpvTitel":"Laboratorieudstyr, optisk udstyr og præcisionsudstyr (ikke briller)","formulartype":"Resultater","formulartypeKode":"result","tidsfrister":[],"alleOrdregivere":["Aarhus Universitet"],"beskrivelse":"The Department of Chemistry and the CORC Center at Aarhus University has a strong international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms, where accurate thermodynamic and kinetic measurements are vital for scientific advancement. Modern global research places increasing emphasis on designing materials and catalysts capable of efficiently capturing and converting CO₂, making it critical to resolve minute changes in heat flow and to maintain precise experimental control. To optimize and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ advanced isothermal nanocalorimetry. This technique provides detailed insight into the thermodynamics of CO₂ adsorption and binding to functional materials, including metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst surfaces; these steps often involve subtle and overlapping thermal events. Furthermore, the study of proton-coupled electron transfer processes and intermediate formation in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel, multi-channel screening, which enables comparative analysis of molecular and heterogeneous catalyst candidates. Quantification of transient heat signatures, as demonstrated in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial for differentiating reaction pathways and evaluating catalytic efficiency.\nIn summary, an instrument capable of nanocalorimetric detection, specifically at the level of less than 100 nW, is essential to reliably detect the faint heat signals accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must be supported by ultra-high thermal stability, on the order of one millionth of a degree Celsius, over the extended time frames required for the study of long-lived reactions. It is equally critical to enable comparisons among samples by analyzing them simultaneously. Finally, the ability to conduct precise titration and multi-phase experiments is fundamental, that is why the instrument should be equipped with an automated liquid and gas sample handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes at defined intervals, which is indispensable for mechanistic, stepwise studies under real catalytic conditions.\nNo other commercially available microcalorimeter offers the unique combination of nanowatt sensitivity, modular throughput through multi-channel parallel operation, broad temperature range, and configurational flexibility that is found in the TAM IV.","bkSubTypeKode":"29","bkSubType":"Bekendtgørelse om indgåede kontrakter – det generelle direktiv, standardordningen","erAendring":false},"indholdsType":"HENTET_FRA_TED","sekundaereOrdregivere":[],"udforelsesstedNutsCode":["DK042"],"udforelsesstedSubLand":["Østjylland"],"udforelsesstedLand":["Danmark"],"udforelsesstedBy":["Aarhus C"],"tilbudsfrister":[],"intressentfrister":[],"deltagelsefrister":[],"svarfrister":[],"antalParts":0,"antalLots":1,"udbudsDokumenter":[]},"opsummeringEN":{"card":{"titel":"Purchase of 1 microcalorimeter system for advanced research on CO₂ adsorption, reduction, and related catalytic and materials processes","ordregiver":"Aarhus Universitet","ordregiverId":"ORG-31119103","ordregiverIdDatavasket":"31119103","publiceringsdato":"2025-12-01+01:00","cpvKode":"38000000","cpvTitel":"Laboratory, optical and precision equipments (excl. glasses)","formulartype":"Result","formulartypeKode":"result","tidsfrister":[],"alleOrdregivere":["Aarhus Universitet"],"beskrivelse":"The Department of Chemistry and the CORC Center at Aarhus University has a strong international profile in the field of CO₂ adsorption, catalysis, and reduction mechanisms, where accurate thermodynamic and kinetic measurements are vital for scientific advancement. Modern global research places increasing emphasis on designing materials and catalysts capable of efficiently capturing and converting CO₂, making it critical to resolve minute changes in heat flow and to maintain precise experimental control. To optimize and advance CO₂ capture, storage, and catalytic conversion, it is essential to employ advanced isothermal nanocalorimetry. This technique provides detailed insight into the thermodynamics of CO₂ adsorption and binding to functional materials, including metal-organic frameworks and hybrid catalysts. It also enables precise enthalpy measurements for individual mechanistic steps in CO₂ electroreduction on metal or molecular catalyst surfaces; these steps often involve subtle and overlapping thermal events. Furthermore, the study of proton-coupled electron transfer processes and intermediate formation in electrochemical CO₂ reduction benefits greatly from the ability to conduct parallel, multi-channel screening, which enables comparative analysis of molecular and heterogeneous catalyst candidates. Quantification of transient heat signatures, as demonstrated in recent studies on CO₂ chemisorption and dynamic gas-solid interactions, is crucial for differentiating reaction pathways and evaluating catalytic efficiency.\nIn summary, an instrument capable of nanocalorimetric detection, specifically at the level of less than 100 nW, is essential to reliably detect the faint heat signals accompanying CO₂ binding, reduction, and catalyst activation. Such sensitivity must be supported by ultra-high thermal stability, on the order of one millionth of a degree Celsius, over the extended time frames required for the study of long-lived reactions. It is equally critical to enable comparisons among samples by analyzing them simultaneously. Finally, the ability to conduct precise titration and multi-phase experiments is fundamental, that is why the instrument should be equipped with an automated liquid and gas sample handling to allow for the controlled addition of CO₂, co-reactants, or electrolytes at defined intervals, which is indispensable for mechanistic, stepwise studies under real catalytic conditions.\nNo other commercially available microcalorimeter offers the unique combination of nanowatt sensitivity, modular throughput through multi-channel parallel operation, broad temperature range, and configurational flexibility that is found in the TAM IV.","bkSubTypeKode":"29","bkSubType":"Contract award notice – general directive, standard regime","erAendring":false},"indholdsType":"HENTET_FRA_TED","sekundaereOrdregivere":[],"udforelsesstedNutsCode":["DK042"],"udforelsesstedSubLand":["Østjylland"],"udforelsesstedLand":["Denmark"],"udforelsesstedBy":["Aarhus C"],"tilbudsfrister":[],"intressentfrister":[],"deltagelsefrister":[],"svarfrister":[],"antalParts":0,"antalLots":1,"udbudsDokumenter":[]}}