Buoyant Density Separations (Q3988877): Difference between revisions

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Property / summary
 
Separating mixtures of substances into components, fractions and phases is an essential part of our economy. Classical separations, such as extraction, distillation, absorption, crystallisation and membranes are often robust, have a proven track record and are widely applied. Disadvantages of these processes are that they are often very energy and capital intensive and cannot be achieved all the desired fractionations with these technologies. For these reasons, much research is still being carried out on new separation technologies that are more sustainable and also offer new possibilities for separation into unique components.The so-called Buoyant Density Separation (BDS) is a technology in which in an inert solvent, preferably in aqueous environment, separation is achieved by differences in the density of particulate mixtures. By setting the density of a solvent in such a way that it lies between the density of the components to be separated, the lighter component will float (float) and sink the heavier component (sink). Furthermore, by reducing the density of the solvent dosed, the lighter, floating or heavier fraction can be separated and, if desired, several fractions with different densities (= components) can be isolated. A consortium consisting of the companies Sanovations, Syncom, AVEBE, Nedmag, Hempflax, KNN and the knowledge institutions RUG and Hanze University of Applied Sciences will deepen, explore and eventually unlock the knowledge for the Northern business/region. Applications are being sought in the bioeconomy and pharmaceutical industry. The project develops an energy-efficient, sustainable, scalable and non-destructive separation technology, contributing to the desired biobased and circular transition, as well as the climate objectives set. Low-grade raw material (and residual) streams are, where possible, separated into high-quality fractions using the BDS technique for numerous commercial applications. The solvents used, preferably aqueous, are recycled and prepared for reuse. For propositions in the pharmaceutical industry, both energy needs and the amount of waste/waste formed are also reduced and the technology also offers the possibility to synthesise and/or develop existing medicines in a better way. The project contributes to the RIS3 objectives of health, food and sustainability. The knowledge and skills developed should result in a significant strengthening of Northern business. In addition to strengthening the competitiveness of the companies involved in the proposal, the knowledge and skills should also be opened up to suppliers of raw materials (agro raw materials) and those interested in the fractions to be obtained from these raw materials (cross sectoral chains), preferably from the North. The knowledge gained, also from the knowledge institutions, must result in the preservation and strengthening of human capital for our region. (English)
Property / summary: Separating mixtures of substances into components, fractions and phases is an essential part of our economy. Classical separations, such as extraction, distillation, absorption, crystallisation and membranes are often robust, have a proven track record and are widely applied. Disadvantages of these processes are that they are often very energy and capital intensive and cannot be achieved all the desired fractionations with these technologies. For these reasons, much research is still being carried out on new separation technologies that are more sustainable and also offer new possibilities for separation into unique components.The so-called Buoyant Density Separation (BDS) is a technology in which in an inert solvent, preferably in aqueous environment, separation is achieved by differences in the density of particulate mixtures. By setting the density of a solvent in such a way that it lies between the density of the components to be separated, the lighter component will float (float) and sink the heavier component (sink). Furthermore, by reducing the density of the solvent dosed, the lighter, floating or heavier fraction can be separated and, if desired, several fractions with different densities (= components) can be isolated. A consortium consisting of the companies Sanovations, Syncom, AVEBE, Nedmag, Hempflax, KNN and the knowledge institutions RUG and Hanze University of Applied Sciences will deepen, explore and eventually unlock the knowledge for the Northern business/region. Applications are being sought in the bioeconomy and pharmaceutical industry. The project develops an energy-efficient, sustainable, scalable and non-destructive separation technology, contributing to the desired biobased and circular transition, as well as the climate objectives set. Low-grade raw material (and residual) streams are, where possible, separated into high-quality fractions using the BDS technique for numerous commercial applications. The solvents used, preferably aqueous, are recycled and prepared for reuse. For propositions in the pharmaceutical industry, both energy needs and the amount of waste/waste formed are also reduced and the technology also offers the possibility to synthesise and/or develop existing medicines in a better way. The project contributes to the RIS3 objectives of health, food and sustainability. The knowledge and skills developed should result in a significant strengthening of Northern business. In addition to strengthening the competitiveness of the companies involved in the proposal, the knowledge and skills should also be opened up to suppliers of raw materials (agro raw materials) and those interested in the fractions to be obtained from these raw materials (cross sectoral chains), preferably from the North. The knowledge gained, also from the knowledge institutions, must result in the preservation and strengthening of human capital for our region. (English) / rank
 
Normal rank
Property / summary: Separating mixtures of substances into components, fractions and phases is an essential part of our economy. Classical separations, such as extraction, distillation, absorption, crystallisation and membranes are often robust, have a proven track record and are widely applied. Disadvantages of these processes are that they are often very energy and capital intensive and cannot be achieved all the desired fractionations with these technologies. For these reasons, much research is still being carried out on new separation technologies that are more sustainable and also offer new possibilities for separation into unique components.The so-called Buoyant Density Separation (BDS) is a technology in which in an inert solvent, preferably in aqueous environment, separation is achieved by differences in the density of particulate mixtures. By setting the density of a solvent in such a way that it lies between the density of the components to be separated, the lighter component will float (float) and sink the heavier component (sink). Furthermore, by reducing the density of the solvent dosed, the lighter, floating or heavier fraction can be separated and, if desired, several fractions with different densities (= components) can be isolated. A consortium consisting of the companies Sanovations, Syncom, AVEBE, Nedmag, Hempflax, KNN and the knowledge institutions RUG and Hanze University of Applied Sciences will deepen, explore and eventually unlock the knowledge for the Northern business/region. Applications are being sought in the bioeconomy and pharmaceutical industry. The project develops an energy-efficient, sustainable, scalable and non-destructive separation technology, contributing to the desired biobased and circular transition, as well as the climate objectives set. Low-grade raw material (and residual) streams are, where possible, separated into high-quality fractions using the BDS technique for numerous commercial applications. The solvents used, preferably aqueous, are recycled and prepared for reuse. For propositions in the pharmaceutical industry, both energy needs and the amount of waste/waste formed are also reduced and the technology also offers the possibility to synthesise and/or develop existing medicines in a better way. The project contributes to the RIS3 objectives of health, food and sustainability. The knowledge and skills developed should result in a significant strengthening of Northern business. In addition to strengthening the competitiveness of the companies involved in the proposal, the knowledge and skills should also be opened up to suppliers of raw materials (agro raw materials) and those interested in the fractions to be obtained from these raw materials (cross sectoral chains), preferably from the North. The knowledge gained, also from the knowledge institutions, must result in the preservation and strengthening of human capital for our region. (English) / qualifier
 
point in time: 15 December 2021
Timestamp+2021-12-15T00:00:00Z
Timezone+00:00
CalendarGregorian
Precision1 day
Before0
After0

Revision as of 06:20, 15 December 2021

Project Q3988877 in Netherlands
Language Label Description Also known as
English
Buoyant Density Separations
Project Q3988877 in Netherlands

    Statements

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    436,553.691 Euro
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    1,153,378.31 Euro
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    37.85 percent
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    1 July 2020
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    1 July 2022
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    AVEBE
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    53°14'27.24"N, 6°31'58.26"E
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    53°6'7.96"N, 6°53'10.00"E
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    53°11'27.49"N, 6°35'47.54"E
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    53°12'2.16"N, 6°35'59.17"E
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    53°14'35.84"N, 6°31'47.53"E
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    9747AW
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    9747AS
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    9723BN
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    9747 AT
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    9641KZ
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    9700AE
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    9722WL
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    Het scheiden van mengsels van stoffen in componenten, fracties en fasen is een essentieel onderdeel van onze economie. Klassieke scheidingen, zoals bijvoorbeeld met behulp van extractie, destillatie, absorptie, kristallisatie en membranen zijn vaak robuust, hebben een proven track record en worden op grote schaal toegepast. Nadelen van deze processen zijn dat ze vaak erg energie en kapitaals-intensief zijn en niet alle gewenste fractioneringen met deze technologieën bewerkstelligd kunnen worden. Om deze redenen wordt er nog steeds veel onderzoek gedaan naar nieuwe scheidingtechnologieën die duurzamer zijn en tevens nieuwe mogelijkheden voor scheiding in unieke componenten bieden.De zogenaamde Buoyant Density Separation (BDS) is een technologie waarbij in een inert oplosmiddel, bij voorkeur in waterig milieu, scheiding wordt bewerkstelligd door verschillen in de dichtheid van mengsels van deeltjes. Door de dichtheid van een oplosmiddel zodanig in te stellen dat deze tussen de dichtheid van de te scheiden componenten in ligt wordt bewerkstelligd dat de lichtere component gaat drijven (float) en de zwaardere component gaat zinken (sink). Verder kan, door de dichtheid van het oplosmiddel gedoseerd te verlagen steeds opnieuw de lichtere, drijvende fractie of de zwaardere fractie afgescheiden worden en kunnen er, indien gewenst, meerdere fracties met een verschillende dichtheden (= componenten) worden geïsoleerd. Een consortium bestaand uit de bedrijven Sanovations, Syncom, AVEBE, Nedmag, Hempflax, KNN en de kennisinstellingen RUG en Hanzehogeschool gaat de kennis op dit gebied verdiepen, exploreren en de kennis uiteindelijk ontsluiten voor het Noordelijk bedrijfsleven/regio. Gezocht wordt naar applicaties in de bioeconomie en de farmaceutische industrie. In het project wordt een energiezuinige, duurzame, goed opschaalbare en niet destructieve scheidingstechnologie ontwikkeld en hiermee draagt het bij aan de gewenste biobased en circulaire transitie, alsmede de gestelde klimaatdoelstellingen. Laagwaardige grondstof (en rest)stromen worden, waar mogelijk, middels de BDS techniek gescheiden in hoogwaardige fracties voor tal van commerciële applicaties. De gebruikte oplosmiddelen, bij voorkeur waterig, worden gerecycled en gereed gemaakt voor hergebruik. Ook voor proposities in de farmaceutische industrie wordt zowel de energiebehoefte alsmede de hoeveelheid gevormde waste/afval verminderd en biedt de technologie tevens de mogelijkheid om bestaande medicijnen op een betere manier te synthetiseren en/of te ontwikkelen. Het project draagt bij aan de RIS3 doelstellingen gezondheid, voedsel en duurzaamheid. De ontwikkelde kennis en kunde moet resulteren in het significant versterken van het Noordelijk bedrijfsleven. Naast dat de concurrentiepositie van de bij het voorstel betrokken bedrijven versterkt wordt moet de kennis en kunde ook opengesteld worden voor bij voorkeur uit het Noorden afkomstige grondstoffen leveranciers (agro-grondstoffen) en bedrijven die geïnteresseerd zijn in de uit deze grondstoffen te verkrijgen fracties (cross sectorale ketens). De aangeboorde kennis, ook voortkomend uit de kennisinstellingen, moet resulteren in behoud en het versterken van “human capital” voor onze regio. (Dutch)
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    Separating mixtures of substances into components, fractions and phases is an essential part of our economy. Classical separations, such as extraction, distillation, absorption, crystallisation and membranes are often robust, have a proven track record and are widely applied. Disadvantages of these processes are that they are often very energy and capital intensive and cannot be achieved all the desired fractionations with these technologies. For these reasons, much research is still being carried out on new separation technologies that are more sustainable and also offer new possibilities for separation into unique components.The so-called Buoyant Density Separation (BDS) is a technology in which in an inert solvent, preferably in aqueous environment, separation is achieved by differences in the density of particulate mixtures. By setting the density of a solvent in such a way that it lies between the density of the components to be separated, the lighter component will float (float) and sink the heavier component (sink). Furthermore, by reducing the density of the solvent dosed, the lighter, floating or heavier fraction can be separated and, if desired, several fractions with different densities (= components) can be isolated. A consortium consisting of the companies Sanovations, Syncom, AVEBE, Nedmag, Hempflax, KNN and the knowledge institutions RUG and Hanze University of Applied Sciences will deepen, explore and eventually unlock the knowledge for the Northern business/region. Applications are being sought in the bioeconomy and pharmaceutical industry. The project develops an energy-efficient, sustainable, scalable and non-destructive separation technology, contributing to the desired biobased and circular transition, as well as the climate objectives set. Low-grade raw material (and residual) streams are, where possible, separated into high-quality fractions using the BDS technique for numerous commercial applications. The solvents used, preferably aqueous, are recycled and prepared for reuse. For propositions in the pharmaceutical industry, both energy needs and the amount of waste/waste formed are also reduced and the technology also offers the possibility to synthesise and/or develop existing medicines in a better way. The project contributes to the RIS3 objectives of health, food and sustainability. The knowledge and skills developed should result in a significant strengthening of Northern business. In addition to strengthening the competitiveness of the companies involved in the proposal, the knowledge and skills should also be opened up to suppliers of raw materials (agro raw materials) and those interested in the fractions to be obtained from these raw materials (cross sectoral chains), preferably from the North. The knowledge gained, also from the knowledge institutions, must result in the preservation and strengthening of human capital for our region. (English)
    15 December 2021
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    Identifiers

    OP-2014-2023-Noord-OPSNN0329
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