Abstract: A method for the fabrication of a coated sheet is provided. The method includes the steps of providing a sheet in a deposition chamber, maintaining the deposition chamber at a pressure Pchamber, maintaining an ejection chamber that is located inside the deposition chamber at a pressure Peject and coating the sheet with zinc with a sonic vapor jet. A ratio of the pressures Pchamber to Peject is between 2·10?3 and 5.5·10?2.

Abstract: A method for selectively depositing graphene on cobalt caps on copper interconnects for dual damascene structures in a back-end-of-line substrate is provided. The method comprises providing a semiconductor substrate comprising a first dielectric layer, the copper interconnect in the first dielectric layer, and the cobalt cap on the copper interconnect, the cobalt cap having an exposed metal surface, wherein the exposed metal surface comprises cobalt, and selectively depositing carbon layer on the exposed metal surface.

Abstract: Provided herein are materials and methods for in vivo labeling of membrane proteins using plasma-induced modification of biomolecules (PLIMB).

Abstract: Provided herein are materials and methods for plasma-free labeling of biological molecules with trifluoromethyl and hydroxyl radicals generated using a peroxide and a radical precursor such as sodium triflinate. The methods provided herein find use in labeling of molecules, such as cell-membrane proteins, in live, intact cells.

Abstract: An adhesive tape (1) which requires a smaller amount of adhesive by comparison with conventional adhesive tapes having the same adhesive properties is obtained using a method for producing an adhesive tape, which method comprises the following steps: a) mixing an ASE thickener with water and producing an (ASE) thickener-water mixture (7); b) producing an adhesive dispersion (8) from an adhesive and a solvent; c) providing a textile substrate (2); d) applying the (ASE) thickener-water mixture (7) to the textile substrate; e) applying the adhesive dispersion (8) to the (ASE) thickener-water mixture (7) in order to obtain the adhesive tape; f) drying the obtained adhesive tape; in which method the thickener, in particular the ASE thickener, is saturated with water and the adhesive dispersion (8) is applied after or at the same time as the (ASE) thickener-water mixture (7) is applied.

Abstract: Mapping a message sent between computing applications to a computing environment associated with one of the computing applications. The computing environment can be a test environment used for developing the computing application. Identification of the computing environment and other data from the message can be extracted from a header of the message and logged. The logged data can be stored in a storage and displayed via a user interface.

Abstract: The present embodiments disclose a system for maintaining a mixture temperature of a multicomponent spray while minimizing a difference in pressure between the components at an applicator, which can include at least one first component temperature sensor and at least one second component temperature sensor, at least one first component pressure sensor and at least one second component pressure sensor, at least one first component heating element, an applicator, wherein a difference in pressure between each of the multiple components is minimized by adjusting the temperature of the at least one first component; and a control system comprising an interface configured to receive at least one temperature setpoint from a user, wherein the interface is also configured to receive at least one pressure setpoint from a user.

Abstract: A fluid management system includes a housing having a port, a valve body moveable within the housing between first and second positions to seal the port in the first position and to permit fluid flow through the port in the second position, a biasing element surrounding a portion of and coupled to the valve body, the biasing element configured to bias the valve body toward one of the first position or the second position, and an actuator surrounding a portion of the biasing element and coupled to the valve body. The actuator includes a shape memory alloy material and is configured to move the valve body to the first position or the second position against a biasing force of the biasing element in response to heating the actuator. A power source is electrically coupled to the actuator to selectively drive current through the actuator to heat the actuator.

Abstract: The invention relates to a high-temperature grease comprising (A) 20 to 88 wt %, based on the overall weight of the grease, of a base oil, (B) 1 to 55 wt. %, based on the overall weight of the grease, of a fluorine-free material, said fluorine-free material having an average particle size (D50) of less than 80 ?m wherein the grease does not contain polytetrafluorothylene and/or contains polytetrafluorothylene in a proportion of less than 4 wt. %, based on the overall weight of the grease.

Abstract: A valve includes a housing with a bottom plate, first and second fluid ports, and an actuator component arranged such that the bottom plate engages the actuator component. The actuator component includes a carrier, a plunger arranged on the carrier and comprising a sealing surface, a shape memory alloy actuator arranged co-linearly with the plunger between the carrier and the plunger to exert an actuation force onto the plunger, and a spring co-linearly arranged with the plunger between the carrier and the plunger to exert a bias force onto the plunger. The sealing surface of the plunger can sealingly engage the first fluid port. The valve further includes a circuit board comprising circuitry to actuate the shape memory alloy actuator. The housing is at least partly arranged between the circuit board and carrier and comprises through holes to receive electrical pins of the actuator component extending towards the circuit board.

Abstract: A fluid management system includes a housing with a first port, a second port, and a third port, and a valve body moveable within the housing between a first position and a second position. The valve body is configured to seal the third port and permit fluid flow between the first and second ports in the first position, and to seal the first port and permit fluid flow between the second and third ports in the second position. The system further includes an actuator coupled to the valve body. The actuator includes a shape memory alloy material. A biasing element is coupled to the valve body to bias the valve body toward one of the first or second positions. The actuator is configured to move the valve body to one of the first or second positions against a biasing force of the biasing element in response to heating the actuator.

Abstract: Various examples relate to electrically actuated valves. Various examples relate to actuators to be used for valves, e.g., shape—memory alloy actuators or solenoid actuators (151) or piezoelectric actuators. Various examples relate to a modular concept in which a valve can be formed by attaching an actuator component (601) to a housing. Various examples relate to a further modular concept in which multiple valve blocks, each valve block including one or more valves, can be fluidly coupled with each other.

Abstract: A method and a device are disclosed for determining icing on an aircraft, as well as an aircraft. The method can include acquiring a current flight state of the aircraft, acquiring current flight conditions of the aircraft, estimating an estimated power feed of a power supply of the aircraft for the current flight state under the current flight conditions, comparing the estimated power feed with an actual power feed of the power supply of the aircraft, and determining a presence of icing on the aircraft when a probability of an existence of icing conditions exceeds a predetermined probability threshold and the estimated power feed exceeds the actual power feed by a predetermined amount.

Abstract: An adhesive tape (1) which requires a smaller amount of adhesive by comparison with conventional adhesive tapes having the same adhesive properties is obtained using a method for producing an adhesive tape, which method comprises the following steps: a) mixing an ASE thickener with water and producing an (ASE) thickener-water mixture (7); b) producing an adhesive dispersion (8) from an adhesive and a solvent; c) providing a textile substrate (2); d) applying the (ASE) thickener-water mixture (7) to the textile substrate; e) applying the adhesive dispersion (8) to the (ASE) thickener-water mixture (7) in order to obtain the adhesive tape; f) drying the obtained adhesive tape; in which method the thickener, in particular the ASE thickener, is saturated with water and the adhesive dispersion (8) is applied after or at the same time as the (ASE) thickener-water mixture (7) is applied.

Abstract: A fluid management system includes a bladder assembly having a first sheet of weldable plastic material and a second sheet of weldable plastic material bonded to the first sheet to form welded areas surrounding and defining a plurality of bladder chambers between the first and second sheets.

Abstract: An acrylic pressure-sensitive adhesive was to be provided that finds use especially in a reversible adhesive tape that is redetachable without leaving any residue, the adhesive tape having a particularly flat paper backing with high air permeability, and thus gives rise to particularly precise and flat paint edges when applied. This is achieved by an acrylic pressure-sensitive adhesive based on polymers having the following monomer composition: (a) 97% to 99% by weight of monomers from the group comprising 2-ethylhexyl acrylate or 2-octyl acrylate or n-heptyl acrylate or mixtures of at least two of said monomers, (b) 1% to 3% by weight of (meth)acrylic acid and further comprising a crosslinking system, wherein the ratio of the reactive crosslinking groups and the carboxy groups of (meth)acrylic acid (b) is less than or equal to 7% and wherein the polymers are produced by emulsion polymerization.

Abstract: Adhesive tapes comprise a textile carrier and a pressure-sensitive adhesive, applied on at least one side of the carrier, in the form of a thickened dried polymer dispersion, wherein the unthickened dried polymer dispersion comprises: (a) 30.0 to 98.0 wt % of monomeric acrylates; (b) 0 to 50.0 wt % of ethylenically unsaturated comonomers which are not acrylates; (c) 1.0 to 10.0 wt % of tackifier; and (d) 1.0 to 10.0 wt % of kaolin, wherein a rheological additive is added to the polymer dispersion so that the polymer dispersion has a viscosity before drying of 40 to 100 Pa*s at a shear rate of 10/s and a viscosity of 3000 to 8000 Pa*s at a shear rate of 0.01/s.

Abstract: A fluid management system includes a housing having a central manifold in fluid communication with a source of pressurized fluid, a plurality of first ports in communication with the central manifold, a plurality of second ports in communication with the environment surrounding the housing, and a plurality of third ports each configured to be coupled to a vessel for containing the pressurized fluid. The fluid management system also includes a plurality of valves and a plurality of actuators, each actuator including a smart material and associated with one of the plurality of valves. In response to activation by an energy source, each actuator is configured to move the associated valve to one of a first position or a second position.

Abstract: Various examples relate to electrically actuated valves. Various examples relate to actuators to be used for valves, e.g., shape—memory alloy actuators or solenoid actuators (151) or piezoelectric actuators. Various examples relate to a modular concept in which a valve can be formed by attaching an actuator component (601) to a housing. Various examples relate to a further modular concept in which multiple valve blocks, each valve block including one or more valves, can be fluidly coupled with each other.

Abstract: A fluid management system includes a housing with a first port, a second port, and a third port, and a valve body moveable within the housing between a first position and a second position. The valve body is configured to seal the third port and permit fluid flow between the first and second ports in the first position, and to seal the first port and permit fluid flow between the second and third ports in the second position. The system further includes an actuator coupled to the valve body. The actuator includes a shape memory alloy material. A biasing element is coupled to the valve body to bias the valve body toward one of the first or second positions. The actuator is configured to move the valve body to one of the first or second positions against a biasing force of the biasing element in response to heating the actuator.