Abstract: Provided is a wind turbine blade, with a generally hollow blade body including half shells and webs the webs including flanges connecting the respective web to the respective half shell, and with webs being supported via reinforcement structures relative to the respective half shell, which reinforcement structures are arranged between an outer and an inner layer of each half shell and extend in the lengthwise direction of the blade, whereby the reinforcement structures each include at least one stack composed of several glass fiber layers infused with resin, and that at least one stiffening element extending parallel to the first and second reinforcement structures over at least a part of their length including at least one stack composed of several pultruded composite strips including carbon fibers with the strips being fixed in the resin is arranged between the first and second reinforcement structures.

Abstract: The disclosure relates to a spray applicator system for accurately and precisely dosing liquid formulations, including vaccines and probiotic formulations, to caged avian animals. In particular, the disclosure relates to spray applicators, having improved acceptance by the avian animals, relative to more disruptive prior spray applicators. The disclosed automated caged spray applicator system is designed to attach to and function with automated poultry feeding systems, routinely used in poultry house settings.

Abstract: The application discloses a spray applicator system attachable to a poultry feeder for accurately and precisely dosing liquid formulations, including vaccines and probiotic formulations, to caged avian animals. The application discloses spray applicators, having improved acceptance by the avian animals, relative to more disruptive prior spray applicators. The disclosed automated caged spray applicator system is designed to attach to and function with automated poultry feeding systems, routinely used in poultry house settings.

Abstract: A defrost duct assembly for a vehicle includes a housing having a wall that defines an air passage. The air passage extends between an inlet and an outlet of the housing. The wall includes an opening into the air passage. A noise attenuation panel is attached to the housing, and covers the opening in the housing. The noise attenuation panel is an acoustic material that is operable to attenuate noise from within the passage of the housing, while maintaining sufficient air flow to adequately defrost a front windshield of the vehicle. The housing may include multiple outlets and multiple openings covered by one or more noise attenuation panels. The noise attenuation panel is preformed to mate with the housing, and minimize disturbance to the flow of air within the passage.

Abstract: The disclosure relates to a spray applicator system for accurately and precisely dosing liquid formulations, including vaccines and probiotic formulations, to caged avian animals. In particular, the disclosure relates to spray applicators, having improved acceptance by the avian animals, relative to more disruptive prior spray applicators. The disclosed automated caged spray applicator system is designed to attach to and function with automated poultry feeding systems, routinely used in poultry house settings.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilising a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilising a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilising a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilising a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilizing a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.

Abstract: Materials and methods for studying and modulating the interaction of carbohydrate-containing moieties with other species are described, in particular, small particles, e.g. clusters of metal or semiconductor atoms, which can be employed as a substrate for immobilising a plurality of ligands comprising carbohydrate groups. These “nanoparticles” can then be used to study carbohydrate mediated interactions, e.g. with other carbohydrates or proteins, and as therapeutics and diagnostic reagents.