Abstract: A left atrial appendage closure (LAAC) device includes an expandable frame that is adapted to shift between a collapsed configuration and an expanded configuration, the expandable frame comprising a plurality of expandable frame struts and an occlusive member that is disposed over the expandable frame. The LAAC device includes a plurality of anchor members that are each coupled with a corresponding one of the plurality of expandable frame struts. Each of the plurality of anchor members includes an occlusive member retention region having a first occlusive member retention feature and an associated second occlusive member retention feature.

Abstract: A recyclable composite sign that includes a first coating layer, a second coating layer, a first paperboard layer coupled to the first coating layer and located between the first coating layer and the second coating layer, a second paperboard layer coupled to the second coating layer and located between the first paperboard layer and the second coating layer, and a corrugated layer located between, and coupled to, the first paperboard layer and the second paperboard layer.

Abstract: A cable guiding structure (200) for a tower (108) of a wind turbine (10) is described. The tower has a height in substantially vertical direction (110) and a width in substantially horizontal direction (112). The cable guiding structure (200) is adapted for guiding a cable (160) within the tower of the wind turbine. The cable guiding structure includes a horizontal movement element (300) at least partially movable in the width direction (112) of the tower (108). The horizontal movement element (300) includes a receiving part (301) for receiving the at least one cable (160) of the wind turbine and wherein the horizontal movement element allows a movement of the at least one cable (160) in the width direction (112) of the tower (100). Further, a method for mounting a cable guiding structure is described.

Abstract: One or more embodiments relate to a method for converting a carbon feedstock into more desirable products involving contacting a biocatalyst with a carbon feedstock, where the biocatalyst converts the carbon feedstock into more desirable products, and where the biocatalyst features Peptostreptococcales-Tissierellales, Proteiniclasticum, Proteiniphilum, Mesobacillus, Acetobacterium, and combinations thereof.

Abstract: A portable toilet cubicle is disclosed. The cubicle comprises a frame, and lifting elements, preferably integral with the frame enabling the toilet cubicle to be lifted. The cubicle further comprises a plurality of panels fitted to the frame to form cubicle walls. A door movable between an open and a closed position, allows ingress and egress from the cubicle. A toilet system is included, comprising a toilet bowl and including a replaceable cassette to collect waste matter. The cassette is releasably sealably mounted within the toilet system, and further preferably configured to be removable through a sealingly replaceable section in a wall of the toilet cubicle.

Abstract: Some embodiments of a coating system can include a conveyor and an infrared panel positioned above the conveyor, where the infrared panel outputs infrared energy toward the conveyor bed, a coating device positioned above a brush bed that dispenses coating material towards the brush bed, wherein the brush bed is configured to receive products; and a drying station comprising a rolling conveyor downstream from the brush bed.

Abstract: A cable guiding structure (200) for a tower (108) of a wind turbine (10) is described. The tower has a height in substantially vertical direction (110) and a width in substantially horizontal direction (112). The cable guiding structure (200) is adapted for guiding a cable (160) within the tower of the wind turbine. The cable guiding structure includes a horizontal movement element (300) at least partially movable in the width direction (112) of the tower (108). The horizontal movement element (300) includes a receiving part (301) for receiving the at least one cable (160) of the wind turbine and wherein the horizontal movement element allows a movement of the at least one cable (160) in the width direction (112) of the tower (100). Further, a method for mounting a cable guiding structure is described.

Abstract: A tower for a wind turbine is disclosed, said wind turbine comprises the tower, a nacelle and a rotor having at least one rotor blade. The tower is configured for supporting the nacelle and the rotor on a support system. The tower itself may be structured as having an upper top end for supporting the nacelle and a lower support end for being placed on the support system. Electric energy generated is transported via power cables from the nacelle to an electric grid, preferably via power electronic components, switches and/or transformers. Furthermore, the nacelle may rotate around the yaw axis according to the current wind direction. Hence, the rotation of the nacelle introduces a twist into the power cables, wherein said twist causes a deviation (shortening) in the length of the power cables. Furthermore, the tower comprises at least one radial cable guiding device for receiving the cable and a cable support arrangement for supporting the cable in a beneficial manner.

Abstract: A method of treating a perishable item with a coating is described. In one embodiment, the method includes identifying operational parameters associated with a drying tunnel, identifying a desired coating requirement, determining optimal drying tunnel parameters based on the operational parameters and the desired coating requirements, and operating the drying tunnel based on the optimal drying tunnel parameters.

Abstract: Methods for improving the properties and productivity of plants are described. The methods include contacting the above-ground biomass of a plant with a composition that includes a monoglyceride. Applying the composition to the above-ground biomass can improve properties of the plant, including improved resistance to abiotic and biotic stresses, and can provide post-harvest benefits (e.g., extended shelf-life) to plant products (e.g., fruits or vegetables) that have not been harvested from the plant.

Abstract: A tower for a wind turbine is disclosed, said wind turbine comprises the tower, a nacelle and a rotor having at least one rotor blade. The tower is configured for supporting the nacelle and the rotor on a support system. The tower itself may be structured as having an upper top end for supporting the nacelle and a lower support end for being placed on the support system. Electric energy generated is transported via power cables from the nacelle to an electric grid, preferably via power electronic components, switches and/or transformers. Furthermore, the nacelle may rotate around the yaw axis according to the current wind direction. Hence, the rotation of the nacelle introduces a twist into the power cables, wherein said twist causes a deviation (shortening) in the length of the power cables. Furthermore, the tower comprises at least one radial cable guiding device for receiving the cable and a cable support arrangement for supporting the cable in a beneficial manner.

Abstract: A system for monitoring loading of equipment includes a transmitter assembly mounted to the equipment and a central server. The transmitter assembly has a strain gauge secured to the equipment, an on-board controller and a battery. The central server is in communication with the on-board controller. The central server is configured to receive collected loading data from the transmitter assembly. The on-board controller is configured to operate the transmitter assembly in a load monitoring power mode and a deep sleep mode. The on-board controller is configured to operate at a sleep interval when a load measured by the strain gauge is less than ten percent of a rated working load of the equipment and at an active interval when the load measured by the strain gauge is greater than ten percent of the rated working load. The sleep interval is less than the active interval.

Abstract: This disclosure is directed primarily to a stent for use in the trachea. The stent has a nominally deployed state, an axially extended state and an axially compressed state. The stent has a length. In the axially extended state, the length is at least 20% greater than in the nominally deployed state.

Abstract: Methods of forming a protective coating on a surface of one or more substrates. The methods include providing a mixture including a coating agent in a solvent, forming a fog from the mixture, allowing the fog to contact the outer surface of the one or more substrates so that a portion of the mixture accumulates on at least a portion of the surface of the one or more substrates. The solvent from the mixture is then at least partially removed from the surface of the one or more substrates, e.g., by evaporation or forced convection, causing a protective coating to be formed from the coating agent on at least a part of the surfaces of the one or more substrates. The protective coating can, for example, protect at least to some extent the substrates from biotic or abiotic stressors such as mass or moisture loss, oxidation, mold, fungi, or infestation.

Abstract: This disclosure provides design, material, manufacturing method, and use alternatives for medical devices. An example medical device includes a stent having a first strut. The first strut may include an inner surface and an outer surface. The medical device may also include a first attachment member coupled to the strut and a radioactive element. The radioactive element may be coupled to the attachment member.

Abstract: This disclosure is directed primarily to a stent for use in the trachea. The stent has a nominally deployed state, an axially extended state and an axially compressed state. The stent has a length. In the axially extended state, the length is at least 20% greater than in the nominally deployed state.

Abstract: This disclosure is directed primarily to a stent for use in the trachea. The stent has a nominally deployed state, an axially extended state and an axially compressed state. The stent has a length. In the axially extended state, the length is at least 20% greater than in the nominally deployed state.

Abstract: A harvesting unit with a combine, having a user cab. A harvesting apparatus, advanced by the combine, has a frame and a harvesting assembly on the frame configured to process severed crop over a width between spaced sides of the frame. A fluid delivery system discharges pressurized fluid in discrete streams each directed to at least one of: a) facilitate severance of crop by the harvesting assembly; and b) facilitate advancement of severed crop rearwardly in relationship to the frame for further processing. A user can selectively vary at least one of: a) a volume of pressurized fluid; and b) a direction of pressurized fluid in the discrete streams. A control system has at least one actuator accessible and operable from outside of the cab through a user input to cause the at least one of the volume of pressurized fluid discharged, and direction of the pressurized fluid, in the discrete streams to be varied.

Abstract: A harvesting unit with a combine, having a user cab. A harvesting apparatus, advanced by the combine, has a frame and a harvesting assembly on the frame configured to process severed crop over a width between spaced sides of the frame. A fluid delivery system discharges pressurized fluid in discrete streams each directed to at least one of: a) facilitate severance of crop by the harvesting assembly; and b) facilitate advancement of severed crop rearwardly in relationship to the frame for further processing. A user can selectively vary at least one of: a) a volume of pressurized fluid; and b) a direction of pressurized fluid in the discrete streams. A control system has at least one actuator accessible and operable from outside of the cab through a user input to cause the at least one of the volume of pressurized fluid discharged, and direction of the pressurized fluid, in the discrete streams to be varied.