mhurhangee/ep-ind-claims huggingface dataset:
A device for negative pressure stabilization of a powder bed for an additive manufacturing process, comprising: - a container that is open on at least one side, this container in turn comprising a bottom, a container opening, and two side walls arranged parallel to one another, a filter in or above the bottom and/or in the at least one side wall, wherein the filter is oriented flush with each of the side walls and essentially at right angles to side wall surfaces that are opposite one another and can freely be moved between the side walls while maintaining its orientation; - wherein a surface occupied by the filter corresponding to the surface of the bottom or the side wall and the filter is essentially impervious to a powder comprising a powder bed; - a suction pump for evacuating the powder bed which is connected to a connection on the bottom and/or on the side wall of the container or on a side of the filter, this side facing away from the container opening; and - a compression device that is attachable to or connectable with the container opening, this compression device being able to exert pressure on the powder bed through a pressurized gas, so that a powder bed arranged in the container is pressed against the filter and stabilized through a negative pressure produced by the suction pump and the pressurized gas. - a container that is open on at least one side, this container in turn comprising a bottom, a container opening, and two side walls arranged parallel to one another, a filter in or above the bottom and/or in the at least one side wall, wherein the filter is oriented flush with each of the side walls and essentially at right angles to side wall surfaces that are opposite one another and can freely be moved between the side walls while maintaining its orientation; - wherein a surface occupied by the filter corresponding to the surface of the bottom or the side wall and the filter is essentially impervious to a powder comprising a powder bed; - a suction pump for evacuating the powder bed which is connected to a connection on the bottom and/or on the side wall of the container or on a side of the filter, this side facing away from the container opening; and - a compression device that is attachable to or connectable with the container opening, this compression device being able to exert pressure on the powder bed through a pressurized gas,
Cellulose-based composite material comprising an electrically conductive material dispersed in a matrix containing at least one plant-derived protein and a polymer of aleuritic acid, said cellulose-based composite material being obtainable by a process comprising the steps of: - dissolving the at least one plant-derived protein and aleuritic acid in a dissolving solution to achieve a first mixture, - dispersing an electrically conductive material in said first mixture to achieve a conductive ink, - distributing said conductive ink on at least one side of a cellulose substrate to achieve a coated cellulose substrate, - hot-pressing said coated cellulose substrate to obtain i) impregnation of the cellulose substrate with said conductive ink and ii) polymerization of aleuritic acid. - dissolving the at least one plant-derived protein and aleuritic acid in a dissolving solution to achieve a first mixture, - dispersing an electrically conductive material in said first mixture to achieve a conductive ink, - distributing said conductive ink on at least one side of a cellulose substrate to achieve a coated cellulose substrate, - hot-pressing said coated cellulose substrate to obtain i) impregnation of the cellulose substrate with said conductive ink and ii) polymerization of aleuritic acid.
Semiconductor component with at least one semiconductor chip, in which an electrical circuit is integrated, wherein the semiconductor chip has at least one terminal surface for a test signal, and wherein the semiconductor chip is encapsulated by an electrically insulating encapsulating material covering the terminal surface and having an outer surface, wherein the terminal surface is electrically conductively connected with an analysis contact (9a, 9b) which protrudes beyond the surface of the semiconductor chip and is arranged in the interior of the encapsulating material, and the analysis contact (9a, 9b) is arranged at a spacing from the outer surface of the encapsulating mass, characterised in that a part of the analysis contact (9a, 9b) is exposed, wherein a sufficiently thick layer of the encapsulating material is formed on the surface (b) of the semiconductor chip in the removal region, and the analysis contact (9a, 9b) is connected by way of a first connecting line with an externally accessible connecting contact adjoining the encapsulating material and this connecting contact is connected by way of a second connecting line with an electrical terminal point, which is spaced from the terminal surface, of the semiconductor chip, and that the connecting lines (10, 11) are so arranged in the interior of the encapsulating material that the analysis contact (9a, 9b) is exposed and is separated from the first connecting line without interrupting the second connecting line.
A cleansing composition comprising 1 to 30% by wt. of a surfactant system comprising: (a) 20 to 85% by wt. of surfactant system of an alkanoyl surfactant selected from the group consisting of alkanoyl glycinate, alkanoyl sarcosinate and mixtures thereof, wherein the alkyl group on the alkanoyl chain is C 8 to C 20; (b) 5 to 70% of surfactant system of a fatty acyl isethionate product which product comprises 40 to 80% fatty acyl isethionate and 15 to 50% free fatty acid and/or fatty acid salt, wherein greater than 25% and less than 45% of the fatty acyl isethionate is of chain length C 16 or greater; and greater than 50% of chain length of free fatty acid and fatty acid soap groups combined are of chain length C 16 to C 20. (a) 20 to 85% by wt. of surfactant system of an alkanoyl surfactant selected from the group consisting of alkanoyl glycinate, alkanoyl sarcosinate and mixtures thereof, wherein the alkyl group on the alkanoyl chain is C 8 to C 20; (b) 5 to 70% of surfactant system of a fatty acyl isethionate product which product comprises 40 to 80% fatty acyl isethionate and 15 to 50% free fatty acid and/or fatty acid salt,
A refrigerating and air-conditioning apparatus comprising: multiple refrigeration cycles each including a compressor (1a, 1b), a four-way valve (2a, 2b), an indoor heat exchanger (5a, 5b), a pressure reducing device (4a, 4d), and an outdoor heat exchanger (3a, 3b) which are connected by a pipe, each refrigeration cycle being configured to be capable of performing a cooling operation and a heating operation; an outdoor fan configured to send air for heat exchange with the outdoor heat exchangers (3a, 3b) of the refrigeration cycles; multiple indoor fans (6a, 6b) arranged corresponding to the respective indoor heat exchangers (5a, 5b) of the refrigeration cycles, each indoor fan (6a, 6b) being configured to create air flow to be sent through the respective indoor heat exchanger (5a, 5b) to an air-conditioning target space; and a controller configured to control components constituting the apparatus, characterized in that the controller is configured to, when at least one of the refrigeration cycles starts a defrosting operation to defrost the outdoor heat exchanger of the at least one of the refrigeration cycles, control a capacity of the compressor (1a, 1b) of the at least one refrigeration cycle performing the defrosting operation such that a temperature of air mixed by air-sending through the indoor fans (6a, 6b) reaches a predetermined temperature. multiple refrigeration cycles each including a compressor (1a, 1b), a four-way valve (2a, 2b), an indoor heat exchanger (5a, 5b), a pressure reducing device (4a, 4d), and an outdoor heat exchanger (3a, 3b) which are connected by a pipe, each refrigeration cycle being configured to be capable of performing a cooling operation and a heating operation; an outdoor fan configured to send air for heat exchange with the outdoor heat exchangers (3a, 3b) of the refrigeration cycles; multiple indoor fans (6a, 6b) arranged corresponding to the respective indoor heat exchangers (5a, 5b) of the refrigeration cycles, each indoor fan (6a, 6b) being configured to create air flow to be sent through the respective indoor heat exchanger (5a, 5b) to an air-conditioning target space; and a controller configured to control components constituting the apparatus, characterized in that the controller is configured to, when at least one of the refrigeration cycles starts a defrosting operation to defrost the outdoor heat exchanger of the at least one of the refrigeration cycles, control a capacity of the compressor (1a, 1b) of the at least one refrigeration cycle performing the defrosting operation such that a temperature of air mixed by air-sending through the indoor fans (6a, 6b) reaches a predetermined temperature.
A wind turbine comprising: a rotor shaft configured for operation by a rotor; a drive shaft configured to be driven by the rotor shaft; and a generator driven by the drive shaft; a torque control mechanism provided between the rotor shaft and the drive shaft; wherein the torque control mechanism comprises at least two links extending between the rotor shaft and the drive shaft, the links having a first end and a second end, and wherein the length of each link is variable; and characterised in that the first end is pivotably connected to the rotor shaft and the second end is pivotably connected to the drive shaft. a rotor shaft configured for operation by a rotor; a drive shaft configured to be driven by the rotor shaft; and a generator driven by the drive shaft; a torque control mechanism provided between the rotor shaft and the drive shaft; wherein the torque control mechanism comprises at least two links extending between the rotor shaft and the drive shaft, the links having a first end and a second end, and wherein the length of each link is variable; and characterised in that the first end is pivotably connected to the rotor shaft and the second end is pivotably connected to the drive shaft.
A multilayer insole with activated carbon which contains a supporting layer, an active layer with activated carbon and an upper layer, wherein above the supporting layer, formed by pressing a mixture of cork granulate and a binder together, is arranged at least one damping layer, on whose upper side is arranged a intermediate cork layer to form a thermal bridge between the user's foot and the bottom layers of the insole, above the intermediate cork layer is arranged the active layer, which is on its upper side covered by the upper layer, which is permeable to vapour as well as to liquid moisture, whereby all the layers of the insole are joined together and the insole has spatial shape, which corresponds on upper side of the insole to the shape of the impression of the lower part of the human sole with planar toe section, with a recess for the big toe joint and a recess for the heel, and which corresponds on the bottom surface of the insole to the bottom part of the human sole with planar toe section.
Stratified support item for printing a surface with sublimation inks, more specifically for printing a surface of clothing items such as T-shirts, sweatshirts or the like, said item comprising a thermo adhesive layer suited to allow said item to be fixed to said surface and at least one finish layer (16, 18) suited to receive said sublimation inks, wherein said finish layer (16, 18) comprises polyester powder incorporated in a matrix of polymeric material, characterized in that said powder comprises polyethylene terephthalate powder.
An orthopedic impacting tool for striking an object, the orthopedic impacting tool comprising: a motor; a linear motion converter; a compression piston operatively coupled to the linear motion converter; an air compression chamber; a striker; a control means; and an adapter configured to hold a surgical implement; wherein the control means directs the motor to move the linear motion converter, thereby causing the compression piston to move and compress air within the air chamber; and wherein the compression of air causes the striker to move from a first position to a second position, such that the striker imparts a repeatable, controllable force upon the adapter in a first direction when the tool is pushed toward the object, and in a direction opposite the first direction when the tool is pulled away from the object. a motor; a linear motion converter; a compression piston operatively coupled to the linear motion converter; an air compression chamber; a striker; a control means; and an adapter configured to hold a surgical implement; wherein the control means directs the motor to move the linear motion converter, thereby causing the compression piston to move and compress air within the air chamber; and wherein the compression of air causes the striker to move from a first position to a second position, such that the striker imparts a repeatable, controllable force upon the adapter in a first direction when the tool is pushed toward the object, and in a direction opposite the first direction when the tool is pulled away from the object. in a first direction when the tool is pushed toward the object, and in a direction opposite the first direction when the tool is pulled away from the object.
An immunogenic polypeptide comprising the amino acid sequences of SEQ ID NOs: 1-16, with the provisos that the immunogenic polypeptide does not comprise any amino acid sequence stretches derived from the HIV genome of a length of 8 or more amino acids other than an amino acid sequence according to any of SEQ ID NOs 1-16, and wherein at least two of the amino acid sequences of SEQ ID NO:1-16 are adjoined by an amino acid linker in the immunogenic polypeptide.
A method for managing mobility of a relay node within a wireless communication environment performed by a target cell, comprising: detecting a requested handover of a relay node from a source cell; receiving information from the source cell in connection with the requested handover relating to an access/backhaul resource partitioning utilized by the source cell for the relay node; and configuring an allocation of access subframes and backhaul subframes corresponding to the relay node based at least in part on information received from the source cell, such that a random access response, RAR, transmitted to the relay node occurs on a downlink backhaul subframe corresponding to the relay node. detecting a requested handover of a relay node from a source cell; receiving information from the source cell in connection with the requested handover relating to an access/backhaul resource partitioning utilized by the source cell for the relay node; and configuring an allocation of access subframes and backhaul subframes corresponding to the relay node based at least in part on information received from the source cell, such that a random access response, RAR, transmitted to the relay node occurs on a downlink backhaul subframe corresponding to the relay node.
A method of manufacturing a semiconductor device comprising: forming an active region of a substrate comprising a rectangular shape; forming a thin oxide layer over the substrate, the thin oxide layer being used as a gate oxide such that a voltage for programming said semiconductor is five volts or less; forming a first polysilicon layer comprising a floating gate being a substantially rectangular area, a longer portion of the rectangular shape of the active region being substantially perpendicular to the floating gate; forming a second poly silicon layer comprising a control gate; forming a first metal layer comprising a bit line to be electrically connected to a first n-diffused region of the active region, the bit line being substantially perpendicular to the floating gate; and forming the second metal layer comprising a word line and source line, the word line to be electrically connected to the control gate; and the source line to be electrically connected to a second n-diffused region of the active region. forming an active region of a substrate comprising a rectangular shape; forming a thin oxide layer over the substrate, the thin oxide layer being used as a gate oxide such that a voltage for programming said semiconductor is five volts or less; forming a first polysilicon layer comprising a floating gate being a substantially rectangular area, a longer portion of the rectangular shape of the active region being substantially perpendicular to the floating gate; forming a second poly silicon layer comprising a control gate; forming a first metal layer comprising a bit line to be electrically connected to a first n-diffused region of the active region, the bit line being substantially perpendicular to the floating gate; and forming the second metal layer comprising a word line and source line, the word line to be electrically connected to the control gate; and the source line to be electrically connected to a second n-diffused region of the active region.
A floatable structure that is floating on water or jacked-up out of the water at least partly, comprising a hull provided with a deck and a mooring system (4a, 4b) attached to the floatable structure and configured to moor a second floating structure at a mooring position relative to the floatable structure, wherein the mooring system (4a, 4b) is configured to bring the second floating structure down in the water from an initial floating draft to a larger mooring draft to reduce motions of the second floating structure relative to the first floatable structure, wherein the mooring system (4a, 4b) is configured to pull the second floating structure down in the water from the floating draft to the larger mooring draft, wherein the mooring system (4a, 4b) configured to pull the second floating structure down comprises a pull-down support structure attached to the hull of the floatable structure and extending over some length into the water to a depth below the second floating structure, and at least one tension cable extending between the pull-down support structure and the second floating structure to be moored.
Angular and axial position sensor arrangement, including: - L axially adjacent sensors (S1, S2), where L is a whole number greater than or equal to 2, and - an encoded member that is angularly and axially displaceable relative to the sensors, wherein the encoded member comprises N axial detection encoded rings (21, 22), which are axially adjacent, and where N is a whole number greater than or equal to 2, for which N-1 adjacent axial detection encoded rings are with value A along their entire circumference and an Nth encoded ring is with value B, different from value A, along its entire circumference, said values A and B being distinguishable by one or several of the L sensors to determine the axial position of the encoded member, in a first axial position with the first sensor overlapping the first axial detection encoded ring, and in an Nth axial position with the first sensor overlapping the Nth axial detection encoded ring, in that the encoded member comprises M angular detection encoded rings, the first of which is axially adjacent to the Nth axial detection encoded ring of the N axial detection encoded rings (21, 22), where M is a whole number greater than or equal to 1, and in that the M encoded rings comprise a coding pattern composed of A and B values along their circumference to determine angular position by the sensors. - L axially adjacent sensors (S1, S2), where L is a whole number greater than or equal to 2, and - an encoded member that is angularly and axially displaceable relative to the sensors,
A method of activating a downhole tool in a subterranean well, the method comprising: configuring the downhole tool having an electrical power source, an electrical load, control circuitry which controls activation of the electrical load, and a switch which selectively permits electrical current flow between the electrical power source and the control circuitry; and generating electricity downhole by a generator, thereby causing the switch to permit the electrical current flow between the electrical power source and the control circuitry, wherein a transistor is used to activate the switch when electricity is generated by the generator and applied to the gate of the transistor. configuring the downhole tool having an electrical power source, an electrical load, control circuitry which controls activation of the electrical load, and a switch which selectively permits electrical current flow between the electrical power source and the control circuitry; and generating electricity downhole by a generator, thereby causing the switch to permit the electrical current flow between the electrical power source and the control circuitry, wherein a transistor is used to activate the switch when electricity is generated by the generator and applied to the gate of the transistor.
A hot stamping die apparatus comprising: a first die having a first forming surface; and a second die having a second forming surface corresponding to the first forming surface, wherein each of the first die and the second die comprises a plurality of sub-assemblies (11, 12, 13) connected to each other, and the sub-assemblies (11, 12, 13) are constructed by making a plurality of plates erect and sequentially overlapping the plurality of plates in a face-to-face manner, and a first cooling channel is provided by forming grooves corresponding to each other on overlapping surfaces of adjacent plates along the forming surfaces, characterized in that at least one of the sub-assemblies has an inlet of the first cooling channel on one side of the sub-assembly and an outlet of the first cooling channel on the bottom of the sub-assembly, the first cooling channel of at least one of the sub-assemblies extends in the length direction of the sub-assembly to make a zigzag pattern, and through-holes are provided in the plates of the sub-assembly such that the first cooling channels are connected to each other between adjacent plates, and at least one of the sub-assemblies (11,12,13) is provided with a second cooling channel formed in the length direction of the sub-assembly (11,12,13) such that the second cooling channel passes through the plates, and the second cooling channel is disposed between the forming surface and the first cooling channel of the sub-assembly (11,12,13). a first die having a first forming surface; and a second die having a second forming surface corresponding to the first forming surface, wherein each of the first die and the second die comprises a plurality of sub-assemblies (11, 12, 13) connected to each other, and the sub-assemblies (11, 12, 13) are constructed by making a plurality of plates erect and sequentially overlapping the plurality of plates in a face-to-face manner, and a first cooling channel is provided by forming grooves corresponding to each other on overlapping surfaces of adjacent plates along the forming surfaces, characterized in that at least one of the sub-assemblies has an inlet of the first cooling channel on one side of the sub-assembly and an outlet of the first cooling channel on the bottom of the sub-assembly, the first cooling channel of at least one of the sub-assemblies extends in the length direction of the sub-assembly to make a zigzag pattern, and through-holes are provided in the plates of the sub-assembly such that the first cooling channels are connected to each other between adjacent plates, and at least one of the sub-assemblies (11,12,13) is provided with a second cooling channel formed in the length direction of the sub-assembly (11,12,13) such that the second cooling channel passes through the plates, and the second cooling channel is disposed between the forming surface and the first cooling channel of the sub-assembly (11,12,13).