Listing 1 - 10 of 10 |
Sort by
|
Choose an application
A l’échelle européenne, l’entomofaune pollinisatrice souffre des externalités négatives de la seconde révolution agricole, notamment par l’utilisation de produits phytosanitaires et par la diminution drastique tant en abondance qu’en diversité, des ressources mellifères. Cette diminution liée à l’homogénéisation du paysage peut être considérée comme extrêmement préoccupante. La Wallonie n’est pas épargnée et plus de 25% des plantes supérieures sont considérées comme menacées à très menacées. Afin d’envisager des gestions de l’environnement adaptées à l’entomofaune pollinisatrice, telle que la mise en place de programmes de restauration et de conservation visant une ressource nectarifère continue, il est primordial de pouvoir quantifier la ressource mellifère à l’échelle du paysage. Alors que la quantification manuelle est chronophage et ne permet d’échantillonner qu’une faible proportion de la zone étudiée, ce travail de fin d’études présente une méthode de quantification des ressources mellifères à l’échelle du paysage via des moyens de télédétection. Il est démontré dans ce travail qu’il est possible, par l’élaboration d’indices de discrimination issus du traitement d’images aériennes acquises par drone et dotées d’une résolution de 3 cm, de mettre en évidence et de quantifier les floraisons des principales essences mellifères de Wallonie en phénosaison vernale (colza, saules, pissenlits, fruitiers, merisiers, aubépines). La zone d’étude se compose de 3 zones de 2 kms de rayon autour de ruchers expérimentaux situés à Lonzée, Grand-Manil et Corroy-le-Château. Grâce aux travaux de Baude et. al (2016), la ressource nectarifère des classes de paysage échantillonnées est estimée en multipliant le nombre d’unités florales d’une essence recensée (dans la classe échantillonnée) par sa production nectarifère propre. Ensuite, la ressource de la zone d’étude peut être estimée par extrapolation. Les gestionnaires de l’environnement, les chercheurs en biodiversité ou encore les apiculteurs pourront utiliser la méthodologie de quantification nectarifère développée dans ce travail comme outil d’aide à la décision. Dans ce travail, des données cohérentes de production sont obtenues pour les vergers, les prairies et les champs de colza. Sur une période de 6 semaines, ces productions nectarifères du paysage sont ensuite mises en relation selon un pas de temps hebdomadaire, avec différentes variables mesurées sur les 3 ruchers : • Le gain horaire moyen en nectar et en pollen, déterminé à partir de données de poids acquises à intervalles réguliers de 30 minutes VI • La diversité des rentrées en pollen • La mortalité moyenne • L’infestation moyenne au varroa Afin de tenir compte du développement des colonies d’abeilles, ces variables sont standardisées pour une quantité de 15 000 butineuses et prélevées au départ d’enregistrements effectués pour des journées durant lesquelles les conditions météorologiques sont similaires. Le nombre d’abeilles butineuses sortant chaque matin de la ruche est déterminé par l’analyse de la dérivée temporelle de la courbe du poids de cette ruche. Les résultats de la comparaison mettent en évidence plusieurs relations, notamment entre les gains en pollen et la production nectarifère des classes « verger » et « prairie » du rucher « moyen », ce qui permettrait de supposer qu’il existe un lien entre la quantification des ressources florales réalisée par télédétection et la ressource florale réellement présente sur le terrain. De plus, certaines relations peuvent être supposées entre la production de nectar du colza et des vergers avec les traits biologiques des colonies d’abeilles Apis mellifera L., notamment en ce qui concerne le nombre de butineuses et la mortalité larvaire des colonies.
Choose an application
Over the past decade, the worldwide decline in honey bee populations has been an important issue due to its implications for beekeeping and honey production. Honey bee pathologies are continuously studied by researchers, in order to investigate the host–parasite relationship and its effect on honey bee colonies. For these reasons, the interest of the veterinary community towards this issue has increased recently, and honey bee health has also become a subject of public interest. Bacteria, such as Melissococcus plutonius and Paenibacillus larvae, microsporidia, such as Nosema apis and Nosema ceranae, fungi, such as Ascosphaera apis, mites, such as Varroa destructor, predatory wasps, including Vespa velutina, and invasive beetles, such as Aethina tumida, are “old” and “new” subjects of important veterinary interest. Recently, the role of host–pathogen interactions in bee health has been included in a multifactorial approach to the study of these insects’ health, which involves a dynamic balance among a range of threats and resources interacting at multiple levels. The aim of this Special Issue is to explore honey bee health through a series of research articles that are focused on different aspects of honey bee health at different levels, including molecular health, microbial health, population genetic health, and the interaction between invasive species that live in strict contact with honey bee populations.
Research & information: general --- text-mining --- topic modeling --- colony collapse disorder --- genomics --- Varroa mite --- honey bee health --- Apis mellifera --- GABA --- beta-alanine --- oxalic acid --- diet effect --- microbiota --- bee --- silicone band --- hive --- passive sampler --- honey bee --- virus --- DWV-A --- hive products --- honey --- pollen --- wax --- Nosema ceranae --- Nosema apis --- epidemiology --- replacement --- ecoregions --- North Asia --- DNA analysis --- health --- Lotmaria passim --- Melissococcus plutonius --- pathology --- Tropilaelaps --- Varroa destructor --- honey bees --- mites --- viruses --- behavior --- social immunity --- Africanized bees --- microsatellites --- Uruguay --- honeybee --- One-Health --- nexus --- landscape --- beekeeper --- pathogens --- histopathology --- testes --- microsporidia --- Hsp70 gene --- 16S rRNA gene --- garlic --- viability --- prevalence --- infection intensity --- seasonality --- bee longevity --- bee population --- honey stores --- CCD --- mite --- reproductive rate --- worker brood --- infestation level --- longevity --- distribution --- model --- honey bee model --- grooming --- drones --- chronic bee paralysis virus --- Varroa infestation control --- nosemosis --- hairless black syndrome --- honeybee veterinary medicine --- acute bee paralysis --- chronic bee paralysis --- deformed wing virus --- varroa infestation --- honey bee losses --- viral diseases --- nosematosis --- negative pressures --- bee hive monitoring --- real-time monitoring --- sound measurement --- swarming detection --- queen bee detection --- sound analysis --- acaricides --- primer pheromone --- hydrocarbon profiles --- survival --- Nosema disease --- dark forest bee --- Apis mellifera mellifera --- microsatellite loci --- association --- gut microbiota --- gut mycobiota --- season --- Apis mellifera L. --- unicellular --- text-mining --- topic modeling --- colony collapse disorder --- genomics --- Varroa mite --- honey bee health --- Apis mellifera --- GABA --- beta-alanine --- oxalic acid --- diet effect --- microbiota --- bee --- silicone band --- hive --- passive sampler --- honey bee --- virus --- DWV-A --- hive products --- honey --- pollen --- wax --- Nosema ceranae --- Nosema apis --- epidemiology --- replacement --- ecoregions --- North Asia --- DNA analysis --- health --- Lotmaria passim --- Melissococcus plutonius --- pathology --- Tropilaelaps --- Varroa destructor --- honey bees --- mites --- viruses --- behavior --- social immunity --- Africanized bees --- microsatellites --- Uruguay --- honeybee --- One-Health --- nexus --- landscape --- beekeeper --- pathogens --- histopathology --- testes --- microsporidia --- Hsp70 gene --- 16S rRNA gene --- garlic --- viability --- prevalence --- infection intensity --- seasonality --- bee longevity --- bee population --- honey stores --- CCD --- mite --- reproductive rate --- worker brood --- infestation level --- longevity --- distribution --- model --- honey bee model --- grooming --- drones --- chronic bee paralysis virus --- Varroa infestation control --- nosemosis --- hairless black syndrome --- honeybee veterinary medicine --- acute bee paralysis --- chronic bee paralysis --- deformed wing virus --- varroa infestation --- honey bee losses --- viral diseases --- nosematosis --- negative pressures --- bee hive monitoring --- real-time monitoring --- sound measurement --- swarming detection --- queen bee detection --- sound analysis --- acaricides --- primer pheromone --- hydrocarbon profiles --- survival --- Nosema disease --- dark forest bee --- Apis mellifera mellifera --- microsatellite loci --- association --- gut microbiota --- gut mycobiota --- season --- Apis mellifera L. --- unicellular
Choose an application
Over the past decade, the worldwide decline in honey bee populations has been an important issue due to its implications for beekeeping and honey production. Honey bee pathologies are continuously studied by researchers, in order to investigate the host–parasite relationship and its effect on honey bee colonies. For these reasons, the interest of the veterinary community towards this issue has increased recently, and honey bee health has also become a subject of public interest. Bacteria, such as Melissococcus plutonius and Paenibacillus larvae, microsporidia, such as Nosema apis and Nosema ceranae, fungi, such as Ascosphaera apis, mites, such as Varroa destructor, predatory wasps, including Vespa velutina, and invasive beetles, such as Aethina tumida, are “old” and “new” subjects of important veterinary interest. Recently, the role of host–pathogen interactions in bee health has been included in a multifactorial approach to the study of these insects’ health, which involves a dynamic balance among a range of threats and resources interacting at multiple levels. The aim of this Special Issue is to explore honey bee health through a series of research articles that are focused on different aspects of honey bee health at different levels, including molecular health, microbial health, population genetic health, and the interaction between invasive species that live in strict contact with honey bee populations.
Research & information: general --- text-mining --- topic modeling --- colony collapse disorder --- genomics --- Varroa mite --- honey bee health --- Apis mellifera --- GABA --- beta-alanine --- oxalic acid --- diet effect --- microbiota --- bee --- silicone band --- hive --- passive sampler --- honey bee --- virus --- DWV-A --- hive products --- honey --- pollen --- wax --- Nosema ceranae --- Nosema apis --- epidemiology --- replacement --- ecoregions --- North Asia --- DNA analysis --- health --- Lotmaria passim --- Melissococcus plutonius --- pathology --- Tropilaelaps --- Varroa destructor --- honey bees --- mites --- viruses --- behavior --- social immunity --- Africanized bees --- microsatellites --- Uruguay --- honeybee --- One-Health --- nexus --- landscape --- beekeeper --- pathogens --- histopathology --- testes --- microsporidia --- Hsp70 gene --- 16S rRNA gene --- garlic --- viability --- prevalence --- infection intensity --- seasonality --- bee longevity --- bee population --- honey stores --- CCD --- mite --- reproductive rate --- worker brood --- infestation level --- longevity --- distribution --- model --- honey bee model --- grooming --- drones --- chronic bee paralysis virus --- Varroa infestation control --- nosemosis --- hairless black syndrome --- honeybee veterinary medicine --- acute bee paralysis --- chronic bee paralysis --- deformed wing virus --- varroa infestation --- honey bee losses --- viral diseases --- nosematosis --- negative pressures --- bee hive monitoring --- real-time monitoring --- sound measurement --- swarming detection --- queen bee detection --- sound analysis --- acaricides --- primer pheromone --- hydrocarbon profiles --- survival --- Nosema disease --- dark forest bee --- Apis mellifera mellifera --- microsatellite loci --- association --- gut microbiota --- gut mycobiota --- season --- Apis mellifera L. --- unicellular --- n/a
Choose an application
Over the past decade, the worldwide decline in honey bee populations has been an important issue due to its implications for beekeeping and honey production. Honey bee pathologies are continuously studied by researchers, in order to investigate the host–parasite relationship and its effect on honey bee colonies. For these reasons, the interest of the veterinary community towards this issue has increased recently, and honey bee health has also become a subject of public interest. Bacteria, such as Melissococcus plutonius and Paenibacillus larvae, microsporidia, such as Nosema apis and Nosema ceranae, fungi, such as Ascosphaera apis, mites, such as Varroa destructor, predatory wasps, including Vespa velutina, and invasive beetles, such as Aethina tumida, are “old” and “new” subjects of important veterinary interest. Recently, the role of host–pathogen interactions in bee health has been included in a multifactorial approach to the study of these insects’ health, which involves a dynamic balance among a range of threats and resources interacting at multiple levels. The aim of this Special Issue is to explore honey bee health through a series of research articles that are focused on different aspects of honey bee health at different levels, including molecular health, microbial health, population genetic health, and the interaction between invasive species that live in strict contact with honey bee populations.
text-mining --- topic modeling --- colony collapse disorder --- genomics --- Varroa mite --- honey bee health --- Apis mellifera --- GABA --- beta-alanine --- oxalic acid --- diet effect --- microbiota --- bee --- silicone band --- hive --- passive sampler --- honey bee --- virus --- DWV-A --- hive products --- honey --- pollen --- wax --- Nosema ceranae --- Nosema apis --- epidemiology --- replacement --- ecoregions --- North Asia --- DNA analysis --- health --- Lotmaria passim --- Melissococcus plutonius --- pathology --- Tropilaelaps --- Varroa destructor --- honey bees --- mites --- viruses --- behavior --- social immunity --- Africanized bees --- microsatellites --- Uruguay --- honeybee --- One-Health --- nexus --- landscape --- beekeeper --- pathogens --- histopathology --- testes --- microsporidia --- Hsp70 gene --- 16S rRNA gene --- garlic --- viability --- prevalence --- infection intensity --- seasonality --- bee longevity --- bee population --- honey stores --- CCD --- mite --- reproductive rate --- worker brood --- infestation level --- longevity --- distribution --- model --- honey bee model --- grooming --- drones --- chronic bee paralysis virus --- Varroa infestation control --- nosemosis --- hairless black syndrome --- honeybee veterinary medicine --- acute bee paralysis --- chronic bee paralysis --- deformed wing virus --- varroa infestation --- honey bee losses --- viral diseases --- nosematosis --- negative pressures --- bee hive monitoring --- real-time monitoring --- sound measurement --- swarming detection --- queen bee detection --- sound analysis --- acaricides --- primer pheromone --- hydrocarbon profiles --- survival --- Nosema disease --- dark forest bee --- Apis mellifera mellifera --- microsatellite loci --- association --- gut microbiota --- gut mycobiota --- season --- Apis mellifera L. --- unicellular --- n/a
Choose an application
The ability to produce insects has a broad impact on human lives in a wide array of areas including insect pest and weed management, human and veterinary medicine, insect production for food and nutrient supplements, as well as research and education. Insect rearing began as a simple desire, yet never a simple task, has continued to expand, both in methodology and application. A desire to learn about and understand insects grew into a desire to control and manipulate insects, both to suppress and to preserve. Rearing individual life stages extended to continuous rearing and maintaining evolved into production. Ultimately, this results in insects physically and behaviorally similar to those from nature. New multi-omics technologies (transcriptomics, nutrigenomics, metabolomics, etc.) recently increased knowledge of microbiomes, and the manipulation of nutrigenomic analysis and statistical optimization modeling have enabled advances in insect nutrition. These advances have resulted in a better understanding of the effects of the food stream ingredients and rearing conditions on the insect’s physiological and biochemical functions, in addition to promoting the production of high-quality insects. The production has application in research, insect control, and most recently, specialized food niche. Before one application has been fully realized, a new application has emerged, often supported with the application of new technologies. Given this pattern of advancement followed by benefits, there is every reason to anticipate more to come in the field of insect rearing.
trehalase --- trehalose metabolism --- in vitro rearing --- cold stress --- Trichogramma --- insects as feed and food --- nutrition --- food assimilation --- food conversion --- insect dietetics --- insect rearing --- macro-nutrients --- nitrogen source --- carbon to nitrogen ratio --- food waste --- urea --- black soldier fly larvae --- Hermetia illucens --- Psyttalia incisi --- oriental fruit fly --- cold storage --- emergence rate --- quality --- reproduction --- Apis mellifera --- deformation --- emergence --- honey bee --- larvae --- alternative protein --- amino acid --- Black Soldier fly --- insect protein --- macronutrients --- Coenosia attenuata --- mass rearing --- wing damage --- Bradysia impatiens --- Drosophila melanogaster --- fecundity --- organic waste management --- coconut endosperm --- soybean curd residue --- Diabrotica virgifera --- corn rootworm --- WCRMO-2 --- diet processing --- heating --- spotted-wing drosophila --- symbiotic bacteria --- gut microbiota --- pest-management --- mass-rearing --- insect fitness --- n/a
Choose an application
The ability to produce insects has a broad impact on human lives in a wide array of areas including insect pest and weed management, human and veterinary medicine, insect production for food and nutrient supplements, as well as research and education. Insect rearing began as a simple desire, yet never a simple task, has continued to expand, both in methodology and application. A desire to learn about and understand insects grew into a desire to control and manipulate insects, both to suppress and to preserve. Rearing individual life stages extended to continuous rearing and maintaining evolved into production. Ultimately, this results in insects physically and behaviorally similar to those from nature. New multi-omics technologies (transcriptomics, nutrigenomics, metabolomics, etc.) recently increased knowledge of microbiomes, and the manipulation of nutrigenomic analysis and statistical optimization modeling have enabled advances in insect nutrition. These advances have resulted in a better understanding of the effects of the food stream ingredients and rearing conditions on the insect’s physiological and biochemical functions, in addition to promoting the production of high-quality insects. The production has application in research, insect control, and most recently, specialized food niche. Before one application has been fully realized, a new application has emerged, often supported with the application of new technologies. Given this pattern of advancement followed by benefits, there is every reason to anticipate more to come in the field of insect rearing.
Research & information: general --- trehalase --- trehalose metabolism --- in vitro rearing --- cold stress --- Trichogramma --- insects as feed and food --- nutrition --- food assimilation --- food conversion --- insect dietetics --- insect rearing --- macro-nutrients --- nitrogen source --- carbon to nitrogen ratio --- food waste --- urea --- black soldier fly larvae --- Hermetia illucens --- Psyttalia incisi --- oriental fruit fly --- cold storage --- emergence rate --- quality --- reproduction --- Apis mellifera --- deformation --- emergence --- honey bee --- larvae --- alternative protein --- amino acid --- Black Soldier fly --- insect protein --- macronutrients --- Coenosia attenuata --- mass rearing --- wing damage --- Bradysia impatiens --- Drosophila melanogaster --- fecundity --- organic waste management --- coconut endosperm --- soybean curd residue --- Diabrotica virgifera --- corn rootworm --- WCRMO-2 --- diet processing --- heating --- spotted-wing drosophila --- symbiotic bacteria --- gut microbiota --- pest-management --- mass-rearing --- insect fitness --- trehalase --- trehalose metabolism --- in vitro rearing --- cold stress --- Trichogramma --- insects as feed and food --- nutrition --- food assimilation --- food conversion --- insect dietetics --- insect rearing --- macro-nutrients --- nitrogen source --- carbon to nitrogen ratio --- food waste --- urea --- black soldier fly larvae --- Hermetia illucens --- Psyttalia incisi --- oriental fruit fly --- cold storage --- emergence rate --- quality --- reproduction --- Apis mellifera --- deformation --- emergence --- honey bee --- larvae --- alternative protein --- amino acid --- Black Soldier fly --- insect protein --- macronutrients --- Coenosia attenuata --- mass rearing --- wing damage --- Bradysia impatiens --- Drosophila melanogaster --- fecundity --- organic waste management --- coconut endosperm --- soybean curd residue --- Diabrotica virgifera --- corn rootworm --- WCRMO-2 --- diet processing --- heating --- spotted-wing drosophila --- symbiotic bacteria --- gut microbiota --- pest-management --- mass-rearing --- insect fitness
Choose an application
The ability to produce insects has a broad impact on human lives in a wide array of areas including insect pest and weed management, human and veterinary medicine, insect production for food and nutrient supplements, as well as research and education. Insect rearing began as a simple desire, yet never a simple task, has continued to expand, both in methodology and application. A desire to learn about and understand insects grew into a desire to control and manipulate insects, both to suppress and to preserve. Rearing individual life stages extended to continuous rearing and maintaining evolved into production. Ultimately, this results in insects physically and behaviorally similar to those from nature. New multi-omics technologies (transcriptomics, nutrigenomics, metabolomics, etc.) recently increased knowledge of microbiomes, and the manipulation of nutrigenomic analysis and statistical optimization modeling have enabled advances in insect nutrition. These advances have resulted in a better understanding of the effects of the food stream ingredients and rearing conditions on the insect’s physiological and biochemical functions, in addition to promoting the production of high-quality insects. The production has application in research, insect control, and most recently, specialized food niche. Before one application has been fully realized, a new application has emerged, often supported with the application of new technologies. Given this pattern of advancement followed by benefits, there is every reason to anticipate more to come in the field of insect rearing.
Research & information: general --- trehalase --- trehalose metabolism --- in vitro rearing --- cold stress --- Trichogramma --- insects as feed and food --- nutrition --- food assimilation --- food conversion --- insect dietetics --- insect rearing --- macro-nutrients --- nitrogen source --- carbon to nitrogen ratio --- food waste --- urea --- black soldier fly larvae --- Hermetia illucens --- Psyttalia incisi --- oriental fruit fly --- cold storage --- emergence rate --- quality --- reproduction --- Apis mellifera --- deformation --- emergence --- honey bee --- larvae --- alternative protein --- amino acid --- Black Soldier fly --- insect protein --- macronutrients --- Coenosia attenuata --- mass rearing --- wing damage --- Bradysia impatiens --- Drosophila melanogaster --- fecundity --- organic waste management --- coconut endosperm --- soybean curd residue --- Diabrotica virgifera --- corn rootworm --- WCRMO-2 --- diet processing --- heating --- spotted-wing drosophila --- symbiotic bacteria --- gut microbiota --- pest-management --- mass-rearing --- insect fitness --- n/a
Choose an application
Developing sustainable organic agriculture and resilient agribusiness sector is fundamental, keeping in mind the value of the opportunity presented by the growing demand for healthy and safe food globally, with the expectation for the global population to reach 9.8 billion by 2050, and 11 billion by 2100.Lately, the main threats in Europe, and worldwide, are the increasingly dynamic climate change and economic factors related to currency fluctuations. While the current environmental policy provides several mechanisms to support agribusinesses in mitigating organic food for daily increasing human population and stability of the currency, it does not contemplate the relative readiness of individuals and businesses to act correctly.Organic farming is the practice that relies more on using sustainable methods to cultivate crops and produce food animals, avoiding chemicals and dietary synthetic drug inputs that do not belong to the natural ecosystem. Organic agriculture can also contribute to meaningful socioeconomic, ecologically sustainable development, and significantly in the development of the agribusiness sector, especially in developing countries.
Research & information: general --- Biology, life sciences --- Technology, engineering, agriculture --- Moringa oleifera --- Japanese quail --- fertility --- egg production --- livestock --- agriculture --- organic production --- land --- taxation --- tax incentives --- income --- revenue --- property --- medicinal plants --- sustainable --- poultry --- organic --- eggs --- fatty acids --- organic farming --- production structure --- production intensity --- Ukraine --- meat --- biotic --- natural --- economic efficiency --- costs --- willingness to pay --- honey --- local --- Serbia --- bank --- job satisfaction --- team --- rural --- urban --- the Republic of Serbia --- biomass --- crop residue --- crop production --- energy purposes --- sustainability --- apiculture investment --- research and development --- beekeepers --- geographical origin --- food --- label --- Apis mellifera --- Nosema spp. --- Protofil® --- biochemical analysis --- sustainable livestock production --- added value --- buffalo milk --- dairy products --- chemical composition --- nutritional properties --- kids --- Garganica --- Maltese --- Derivata di Siria --- meat quality --- biodiversity --- marketing in higher education --- marketing mix instruments in higher education --- higher education institutions --- students’ satisfaction --- Republic of Serbia --- Spain --- dyslipidemia --- sea buckthorn --- grape --- high-fat diet --- rats --- phytotherapy --- atorvastatin --- sustainable development --- sustainable tourism development --- rural tourism --- image of a rural tourism destination --- cognitive component --- dimensions of the cognitive component --- farm development --- farm machinery --- labor --- farm investment --- productivity --- sustainable public procurement (SPP) --- green public procurement (GPP) --- consumer behavior --- GPP barriers --- green Romanian agriculture --- consumption --- green marketing --- organic consumer --- cost-effectiveness --- flame weeding --- maize --- organic agricultural production --- plant protection product residues --- organic and conventional agriculture --- LC-MS/MS --- Moringa oleifera --- Japanese quail --- fertility --- egg production --- livestock --- agriculture --- organic production --- land --- taxation --- tax incentives --- income --- revenue --- property --- medicinal plants --- sustainable --- poultry --- organic --- eggs --- fatty acids --- organic farming --- production structure --- production intensity --- Ukraine --- meat --- biotic --- natural --- economic efficiency --- costs --- willingness to pay --- honey --- local --- Serbia --- bank --- job satisfaction --- team --- rural --- urban --- the Republic of Serbia --- biomass --- crop residue --- crop production --- energy purposes --- sustainability --- apiculture investment --- research and development --- beekeepers --- geographical origin --- food --- label --- Apis mellifera --- Nosema spp. --- Protofil® --- biochemical analysis --- sustainable livestock production --- added value --- buffalo milk --- dairy products --- chemical composition --- nutritional properties --- kids --- Garganica --- Maltese --- Derivata di Siria --- meat quality --- biodiversity --- marketing in higher education --- marketing mix instruments in higher education --- higher education institutions --- students’ satisfaction --- Republic of Serbia --- Spain --- dyslipidemia --- sea buckthorn --- grape --- high-fat diet --- rats --- phytotherapy --- atorvastatin --- sustainable development --- sustainable tourism development --- rural tourism --- image of a rural tourism destination --- cognitive component --- dimensions of the cognitive component --- farm development --- farm machinery --- labor --- farm investment --- productivity --- sustainable public procurement (SPP) --- green public procurement (GPP) --- consumer behavior --- GPP barriers --- green Romanian agriculture --- consumption --- green marketing --- organic consumer --- cost-effectiveness --- flame weeding --- maize --- organic agricultural production --- plant protection product residues --- organic and conventional agriculture --- LC-MS/MS
Choose an application
Developing sustainable organic agriculture and resilient agribusiness sector is fundamental, keeping in mind the value of the opportunity presented by the growing demand for healthy and safe food globally, with the expectation for the global population to reach 9.8 billion by 2050, and 11 billion by 2100.Lately, the main threats in Europe, and worldwide, are the increasingly dynamic climate change and economic factors related to currency fluctuations. While the current environmental policy provides several mechanisms to support agribusinesses in mitigating organic food for daily increasing human population and stability of the currency, it does not contemplate the relative readiness of individuals and businesses to act correctly.Organic farming is the practice that relies more on using sustainable methods to cultivate crops and produce food animals, avoiding chemicals and dietary synthetic drug inputs that do not belong to the natural ecosystem. Organic agriculture can also contribute to meaningful socioeconomic, ecologically sustainable development, and significantly in the development of the agribusiness sector, especially in developing countries.
Research & information: general --- Biology, life sciences --- Technology, engineering, agriculture --- Moringa oleifera --- Japanese quail --- fertility --- egg production --- livestock --- agriculture --- organic production --- land --- taxation --- tax incentives --- income --- revenue --- property --- medicinal plants --- sustainable --- poultry --- organic --- eggs --- fatty acids --- organic farming --- production structure --- production intensity --- Ukraine --- meat --- biotic --- natural --- economic efficiency --- costs --- willingness to pay --- honey --- local --- Serbia --- bank --- job satisfaction --- team --- rural --- urban --- the Republic of Serbia --- biomass --- crop residue --- crop production --- energy purposes --- sustainability --- apiculture investment --- research and development --- beekeepers --- geographical origin --- food --- label --- Apis mellifera --- Nosema spp. --- Protofil® --- biochemical analysis --- sustainable livestock production --- added value --- buffalo milk --- dairy products --- chemical composition --- nutritional properties --- kids --- Garganica --- Maltese --- Derivata di Siria --- meat quality --- biodiversity --- marketing in higher education --- marketing mix instruments in higher education --- higher education institutions --- students’ satisfaction --- Republic of Serbia --- Spain --- dyslipidemia --- sea buckthorn --- grape --- high-fat diet --- rats --- phytotherapy --- atorvastatin --- sustainable development --- sustainable tourism development --- rural tourism --- image of a rural tourism destination --- cognitive component --- dimensions of the cognitive component --- farm development --- farm machinery --- labor --- farm investment --- productivity --- sustainable public procurement (SPP) --- green public procurement (GPP) --- consumer behavior --- GPP barriers --- green Romanian agriculture --- consumption --- green marketing --- organic consumer --- cost-effectiveness --- flame weeding --- maize --- organic agricultural production --- plant protection product residues --- organic and conventional agriculture --- LC-MS/MS
Choose an application
Developing sustainable organic agriculture and resilient agribusiness sector is fundamental, keeping in mind the value of the opportunity presented by the growing demand for healthy and safe food globally, with the expectation for the global population to reach 9.8 billion by 2050, and 11 billion by 2100.Lately, the main threats in Europe, and worldwide, are the increasingly dynamic climate change and economic factors related to currency fluctuations. While the current environmental policy provides several mechanisms to support agribusinesses in mitigating organic food for daily increasing human population and stability of the currency, it does not contemplate the relative readiness of individuals and businesses to act correctly.Organic farming is the practice that relies more on using sustainable methods to cultivate crops and produce food animals, avoiding chemicals and dietary synthetic drug inputs that do not belong to the natural ecosystem. Organic agriculture can also contribute to meaningful socioeconomic, ecologically sustainable development, and significantly in the development of the agribusiness sector, especially in developing countries.
Moringa oleifera --- Japanese quail --- fertility --- egg production --- livestock --- agriculture --- organic production --- land --- taxation --- tax incentives --- income --- revenue --- property --- medicinal plants --- sustainable --- poultry --- organic --- eggs --- fatty acids --- organic farming --- production structure --- production intensity --- Ukraine --- meat --- biotic --- natural --- economic efficiency --- costs --- willingness to pay --- honey --- local --- Serbia --- bank --- job satisfaction --- team --- rural --- urban --- the Republic of Serbia --- biomass --- crop residue --- crop production --- energy purposes --- sustainability --- apiculture investment --- research and development --- beekeepers --- geographical origin --- food --- label --- Apis mellifera --- Nosema spp. --- Protofil® --- biochemical analysis --- sustainable livestock production --- added value --- buffalo milk --- dairy products --- chemical composition --- nutritional properties --- kids --- Garganica --- Maltese --- Derivata di Siria --- meat quality --- biodiversity --- marketing in higher education --- marketing mix instruments in higher education --- higher education institutions --- students’ satisfaction --- Republic of Serbia --- Spain --- dyslipidemia --- sea buckthorn --- grape --- high-fat diet --- rats --- phytotherapy --- atorvastatin --- sustainable development --- sustainable tourism development --- rural tourism --- image of a rural tourism destination --- cognitive component --- dimensions of the cognitive component --- farm development --- farm machinery --- labor --- farm investment --- productivity --- sustainable public procurement (SPP) --- green public procurement (GPP) --- consumer behavior --- GPP barriers --- green Romanian agriculture --- consumption --- green marketing --- organic consumer --- cost-effectiveness --- flame weeding --- maize --- organic agricultural production --- plant protection product residues --- organic and conventional agriculture --- LC-MS/MS
Listing 1 - 10 of 10 |
Sort by
|