mhurhangee/ep-ind-claims huggingface dataset:
Device for driving fastening elements into a foundation, with a holder for a fastening element, with an opening for a driving element, which drives a fastening element in the holder into the foundation, with a transporting element, which may be brought into engagement with a fastening element or a strip comprising a fastening element from a first side by means of a first spring force, in order to transport the fastening element in a direction of transport into the holder, and with a holding element, which may be brought into engagement with a fastening element or a strip comprising a fastening element from a second side opposite the first side by means of a second spring force, in order to block a movement of the fastening element against the direction of transport.
An apparatus for the control of a rotary solid desiccant dehumidifier having a desiccant wheel and provided with a process and reactivation sector, the apparatus consisting essentially of a central control unit; one or more sensors located proximal to the process sector and the reactivation sector, and operationally associated with the central control unit, in order to inter alia, measure one or more of the air temperature entering the process sector, the air temperature entering the reactivation sector, the average bulk temperature of the air leaving the process sector, the average bulk temperature of the air leaving the reactivation sector, the temperature of the air leaving the process sector of the wheel just before it rotates into the next sequential sector, the temperature of the air leaving the reactivation sector of the wheel just before it rotates into the next sequential sector, air temperatures just before the wheel rotates out of the process and/or reactivation sectors, air temperatures on either side of a purge recirculation loop, the central control unit being provided with a processing unit to process received data and generate output signal(s) using a pre-determined algorithm, characterized in that the central control unit being operationally connected with one or more of the dehumidifier components to transmit output signals thereto and control their functioning including the process air moving means, the reactivation air moving means, the reactivation air heating means, the process air pre-cooling means, and the desiccant wheel rotating means.
An apparatus for operating on tissue, the apparatus comprising: (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide, wherein the waveguide comprises a flexible portion; (d) an articulation section coupled with the shaft, wherein a portion of the articulation section encompasses the flexible portion of the waveguide, wherein the articulation section further comprises: (i) a first member, and (ii) a second member, wherein the second member is longitudinally translatable relative to the first member; (e) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide; and characterized by (f) an articulation lock (200, 300, 1200, 1500), wherein the articulation lock comprises a tensioning feature (220, 320, 1210, 1520), wherein the tensioning feature is configured to selectively apply tension to at least one of the first member and the second member of the articulation section to thereby increase rigidity in the articulation section. (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide, wherein the waveguide comprises a flexible portion; (d) an articulation section coupled with the shaft, wherein a portion of the articulation section encompasses the flexible portion of the waveguide, wherein the articulation section further comprises: (i) a first member, and (ii) a second member, wherein the second member is longitudinally translatable relative to the first member; (i) a first member, and (ii) a second member, wherein the second member is longitudinally translatable relative to the first member; (e) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide; and characterized by (f) an articulation lock (200, 300, 1200, 1500), wherein the articulation lock comprises a tensioning feature (220, 320, 1210, 1520), wherein the tensioning feature is configured to selectively apply tension to at least one of the first member and the second member of the articulation section to thereby increase rigidity in the articulation section.
An antibody, or antigen-binding portion thereof, that binds to the human KIT receptor (SEQ ID NO:92), wherein said antibody, or antigen-binding portion thereof, locks the ectodomain of the human KIT receptor in an inactive state, thereby antagonizing the activity of the human KIT receptor, and wherein said antibody, or antigen-binding portion thereof, is a humanized antibody or antigen-binding portion thereof, a human antibody or antigen-binding portion thereof, or a chimeric antibody or antigen-binding portion thereof, wherein said antibody, or antigen-binding portion thereof, binds to an epitope comprising amino acid residues 375-391 of the human KIT receptor (SEQ ID NO: 92).
Copolymer comprising units of type A deriving from carboxylic acid monomers and units of type B deriving from sulfonic acid monomers, said units of type A and B representing more than 80 mol % of the total moles of units in the copolymer, characterized in that it comprises at least: - one first block formed of at least 95 mol % of units of type A and having a degree of polymerization DP 1 comprised between 5 and 150; and - one second block formed of at least 95 mol % of units of type A and B with a molar ratio of units of type A to units of type B being greater or equal to 1, wherein said units of type A and units of type B are statistically distributed, said second block having a degree of polymerization DP 2 such that DP 2 /DP 1 ≥ 1. - one first block formed of at least 95 mol % of units of type A and having a degree of polymerization DP 1 comprised between 5 and 150; and - one second block formed of at least 95 mol % of units of type A and B with a molar ratio of units of type A to units of type B being greater or equal to 1, wherein said units of type A and units of type B are statistically distributed, said second block having a degree of polymerization DP 2 such that DP 2 /DP 1 ≥ 1.
Pump arrangement, in particular magnetic clutch pump arrangement, having an inner space which is formed by means of a housing arrangement, a containment can which hermetically seals a chamber which is surrounded by it with respect to the inner space formed by the housing arrangement, an impeller shaft which can be rotatably driven about a rotation axis, an impeller which is arranged at one end of the impeller shaft, an internal rotor which is arranged at the other end of the impeller shaft, a drive device, a drive shaft which can be rotatably driven by the drive device about the rotation axis and an external rotor which is arranged on the drive shaft and which cooperates with the internal rotor, wherein the external rotor has a first carrier element and a second carrier element which is connected to the first carrier element, characterized in that the first carrier element has a thermal barrier device. an inner space which is formed by means of a housing arrangement, a containment can which hermetically seals a chamber which is surrounded by it with respect to the inner space formed by the housing arrangement, an impeller shaft which can be rotatably driven about a rotation axis, an impeller which is arranged at one end of the impeller shaft, an internal rotor which is arranged at the other end of the impeller shaft, a drive device, a drive shaft which can be rotatably driven by the drive device about the rotation axis and an external rotor which is arranged on the drive shaft and which cooperates with the internal rotor, wherein the external rotor has a first carrier element and a second carrier element which is connected to the first carrier element, characterized in that the first carrier element has a thermal barrier device.
A device for splitting polarization, comprising: - a first optical coupler (22, 32) having at least one input port which receives an input light beam (21, 31), and at least two output ports at which said light beam is split into at least a first arm (24, 33) and a second arm (25, 34) at a first end of said arms, - a series of at least two total internal reflection mirrors (26, 35) coupled to at least said second arm (25, 34) for inducing polarization-dependent phase shifts in the light beam propagating in said second arm (25, 34), - a second optical coupler (23, 37) having input ports coupled to second and opposite ends of said first and second arms (24, 25, 33, 34), the light beams of which have a polarization-dependent phase difference of 90 or 180 degrees induced by said phase shifts, which causes a polarization-dependent coupling of light from said input port to at least one output port of the second coupler (23, 37), wherein said series of total internal reflection mirrors (26, 35) is used to achieve a targeted polarization-dependent phase difference between said first and second arms (24, 25, 33, 34). - a first optical coupler (22, 32) having at least one input port which receives an input light beam (21, 31), and at least two output ports at which said light beam is split into at least a first arm (24, 33) and a second arm (25, 34) at a first end of said arms, - a series of at least two total internal reflection mirrors (26, 35) coupled to at least said second arm (25, 34) for inducing polarization-dependent phase shifts in the light beam propagating in said second arm (25, 34), - a second optical coupler (23, 37) having input ports coupled to second and opposite ends of said first and second arms (24, 25, 33, 34), the light beams of which have a polarization-dependent phase difference of 90 or 180 degrees induced by said phase shifts, which causes a polarization-dependent coupling of light from said input port to at least one output port of the second coupler (23, 37), wherein said series of total internal reflection mirrors (26, 35) is used to achieve a targeted polarization-dependent phase difference between said first and second arms (24, 25, 33, 34).
An interconnection device for elements (110, 120) to be interconnected, such as electronic modules or circuits, comprising at least one transmission line coupled to a ground line, the two lines (103, 104) being produced on the lower face of a dielectric substrate, the interconnection being made substantially at the ends of the transmission line and of the ground line, said device further comprising at least one metallizing surface forming, on the upper face of the dielectric substrate, at least one coupling element for strengthening the electric coupling between the two lines (103, 104), said metallizing surface being electrically floating, characterised in that said interconnection device is flexible on at least one part of its length that is substantially located between the elements (110, 120) to be interconnected.
Method for producing a multi-level metal micro-structure by LIGA technology, comprising the following steps: a) obtaining a substrate comprising an electrically conductive upper face; b) depositing a first layer of photosensitive resin on the upper face of the substrate; c) patterning the first layer of photosensitive resin in order to produce a first level of a multi-level mould comprising through-going cavities allowing the conductive surface of the substrate to be seen; d) depositing a new layer of photosensitive resin on the produced level of the multi-level mould so as to cover and fill the cavities; e) patterning the new layer of photosensitive resin in order to produce an additional level of the multi-level mould comprising through-going cavities allowing the conductive surface of the substrate to be seen; f) with an electrically conductive surface having been previously formed, during an earlier step, on the accessible portions of the top of the first level of the multi-level mould, filling the cavities of the multi-level mould with metal by electrodeposition so as form a multi-level metal structure; g) releasing the multi-level metal structure from the substrate and from the photosensitive resin; characterised in that, between step d) and step (e), it comprises an additional step of: x) placing the substrate bearing the photosensitive resin layers (3, 6) in a kiln under vacuum for a duration of between a few minutes and several hours so as to produce levelling of the new resin layer. a) obtaining a substrate comprising an electrically conductive upper face; b) depositing a first layer of photosensitive resin on the upper face of the substrate; c) patterning the first layer of photosensitive resin in order to produce a first level of a multi-level mould comprising through-going cavities allowing the conductive surface of the substrate to be seen; d) depositing a new layer of photosensitive resin on the produced level of the multi-level mould so as to cover and fill the cavities; e) patterning the new layer of photosensitive resin in order to produce an additional level of the multi-level mould comprising through-going cavities allowing the conductive surface of the substrate to be seen; f) with an electrically conductive surface having been previously formed, during an earlier step, on the accessible portions of the top of the first level of the multi-level mould, filling the cavities of the multi-level mould with metal by electrodeposition so as form a multi-level metal structure; g) releasing the multi-level metal structure from the substrate and from the photosensitive resin;
A method of encoding a linear predictive coding, LPC, coefficient for an encoding device, the method comprising: obtaining (200, 206, 1002) a line spectral frequency, LSF, coefficient from the LPC coefficient of a subframe in an audio signal; normalizing the LSF coefficient; obtaining a magnitude weighting function of the subframe based on a maximum value of a magnitude of a spectral bin corresponding to a frequency of the normalized LSF coefficient and magnitudes of neighboring spectral bins adjacent to the corresponding spectral bin; obtaining a frequency weighting function of the subframe based on frequency information of the normalized LSF coefficient; combining the magnitude weighting function of the subframe and the frequency weighting function of the subframe to determine a first weighting function of the subframe; obtaining a second weighting function of the subframe associated with spectral sensitivity based on an interval between the obtained LSF coefficient and a LSF coefficient adjacent to the obtained LSF coefficient; combining the first weighting function of the subframe and the second weighting function of the subframe to determine the weighting function of the subframe; quantizing (204, 208) the LSF coefficient by using the weighting function of the subframe; and converting (205, 209) the quantized LSF coefficient to a quantized LPC coefficient. obtaining (200, 206, 1002) a line spectral frequency, LSF, coefficient from the LPC coefficient of a subframe in an audio signal; normalizing the LSF coefficient; obtaining a magnitude weighting function of the subframe based on a maximum value of a magnitude of a spectral bin corresponding to a frequency of the normalized LSF coefficient and magnitudes of neighboring spectral bins adjacent to the corresponding spectral bin; obtaining a frequency weighting function of the subframe based on frequency information of the normalized LSF coefficient; combining the magnitude weighting function of the subframe and the frequency weighting function of the subframe to determine a first weighting function of the subframe; obtaining a second weighting function of the subframe associated with spectral sensitivity based on an interval between the obtained LSF coefficient and a LSF coefficient adjacent to the obtained LSF coefficient; combining the first weighting function of the subframe and the second weighting function of the subframe to determine the weighting function of the subframe; quantizing (204, 208) the LSF coefficient by using the weighting function of the subframe; and converting (205, 209) the quantized LSF coefficient to a quantized LPC coefficient.
A method for dielectrically insulating an electrical active part wherein the electrical active part is arranged in a gas-tight housing comprising an insulating medium consisting of, consisting essentially of, or comprising a compound of general formula: NC-C n H m F -m -O-C n' H m' F (2n'+1)-m' wherein n is 1, 2, 3, 4, or 5 and m is integer between 0 and 2n and wherein n' is 1, 2, 3, 4, or 5 and m' is integer between 0 and 2n'.
An aluminum powder alloy composite material for absorbing neutrons wherein a boron-based compound having the capability of absorbing neutrons is dispersed in a base metal, characterized in that the base metal is an aluminum alloy consisting of 0.8-3.0 mass% of Mn, 0.15-1.5 mass% of Mg, 0.1-0.6 mass% of Cu and 0.1-1.0 mass% of Fe with respect to the total mass of the base metal and optionally further containing at least one of 0.8-2.0 mass% of Si with respect to the total mass of the base metal, and 0.03-1 mass% of Cr with respect to the total mass of the base metal, balanced by aluminum and unavoidable impurities, and that the proportional content of the boron-based compound is 0.4 mass% or more by boron content with respect to the total mass of the composite material.
Tubular actuator for a home automation screen, wherein this actuator comprises: • a tube, • an electric motor inserted into the tube, and • a control device (120; 220) for power supply to the motor inserted into the tube, wherein the motor and the control device are connected by at least one flexible electric wire. characterised in that the tubular actuator comprises tensioning means for the electric wire. • a tube, • an electric motor inserted into the tube, and • a control device (120; 220) for power supply to the motor inserted into the tube,
An apparatus for detecting a position, comprising: - a profile element which has a substantially rectangular cross-section and an elongate body, wherein the profile element has at least a first recess, a second recess, a first central cavity and a second central cavity which extend along the length of the body; and - a position detection element, comprising a first measurement probe, a second measurement probe, a first movable positioning element, a second movable positioning element and an evaluation unit, wherein the evaluation unit is configured to detect a position of the first positioning element relative to the first measurement probe and to detect a position of the second positioning element relative to the second measurement probe, and wherein the first measurement probe is arranged in the first central cavity of the profile element and the second measurement probe is arranged in the second central cavity of the profile element. - a profile element which has a substantially rectangular cross-section and an elongate body, wherein the profile element has at least a first recess, a second recess, a first central cavity and a second central cavity which extend along the length of the body; and - a position detection element, comprising a first measurement probe, a second measurement probe, a first movable positioning element, a second movable positioning element and an evaluation unit, wherein the evaluation unit is configured to detect a position of the first positioning element relative to the first measurement probe and to detect a position of the second positioning element relative to the second measurement probe, and wherein the first measurement probe is arranged in the first central cavity of the profile element and the second measurement probe is arranged in the second central cavity of the profile element.
A control apparatus for a cooling system provided with a cooling tower, a refrigeration device, a cooling fan provided in the cooling tower, and a cooling water pump which circulates cooling water between the cooling tower and the refrigeration device, the control apparatus comprising: an inlet temperature sensor which detects a cooling water temperature at an inlet of the cooling tower or an outlet temperature sensor which detects a cooling water temperature at an outlet of the cooling tower; characterised by an inverter apparatus which calculates a command value such that a temperature detection value for the cooling water temperature matches a preset value, and variably controls the speed of the cooling fan or of the cooling water pump by generating an AC voltage at an output frequency based on the command value; and a wet-bulb temperature estimation control unit which gradually reduces the output frequency of the inverter apparatus when the output frequency has reached an upper limit frequency, stores an output frequency or a temperature at which the inlet temperature or the outlet temperature of the cooling water does not rise despite the reduction of the output frequency, and controls the cooling fan or the cooling water pump on the basis of the stored output frequency or the stored temperature. an inlet temperature sensor which detects a cooling water temperature at an inlet of the cooling tower or an outlet temperature sensor which detects a cooling water temperature at an outlet of the cooling tower; characterised by an inverter apparatus which calculates a command value such that a temperature detection value for the cooling water temperature matches a preset value, and variably controls the speed of the cooling fan or of the cooling water pump by generating an AC voltage at an output frequency based on the command value; and a wet-bulb temperature estimation control unit which gradually reduces the output frequency of the inverter apparatus when the output frequency has reached an upper limit frequency, stores an output frequency or a temperature at which the inlet temperature or the outlet temperature of the cooling water does not rise despite the reduction of the output frequency, and controls the cooling fan or the cooling water pump on the basis of the stored output frequency or the stored temperature.