mhurhangee/patent-ind-claim-en huggingface dataset:
Powder press having a plurality of stamps , which are movable for a transverse press in a feed housing , which stamps partially delimit a hollow chamber of a matrix in the feed housing , wherein the respective stamp being able to be coupled to a press device by a connector piece, characterised in that an adjustable positioning means being allocated to the respective stamp for determining its pressing position, the respective positioning means is formed from a wedge arrangement , which is placed crosswise to the moving direction (V) of the stamp , with at least one wedge having a stop surface and being guidable in a base plate of the feed housing , wherein this stop surface serving directly as a stop for the stamp and accordingly it can be brought into contact with a stop surface (11") of the stamp , wherein the respective stamp of the respective press device is pressable against the stop surface of the feed housing .
Filter paper for manufacturing filters for smoking articles, in particular filter cigarettes, with the following properties: - the filter paper comprises fibers comprising pulp fibers, - at least 80% by weight, preferably at least 90% by weight, particularly preferably at least 95% by weight and highly particularly preferably 100% by weight of the filter paper is formed by long-fiber pulp fibers, - of the fibers, a proportion with respect to the number of the fibers of between 2% and 10%, preferably between 3% and 9% and particularly preferably between 4% and 8% has a length of less than 0.2 mm, - the air permeability of the filter paper, measured in accordance with ISO 2965:2009, is between 500 cm·min -1 ·kPa -1 and 15000 cm·min -1 ·kPa -1 and preferably between 1000 cm·min -1 ·kPa -1 and 9000 cm·min -1 ·kPa -1 , - the number-averaged length of the fibers in the filter paper is greater than 1 mm and less than 5 mm, preferably greater than 2 mm and less than 4 mm, and - the number-averaged width of the fibers in the filter paper is between 10 μm and 50 μm, preferably between 20 μm and 40 μm, and particularly preferably between 25 μm and 35 μm. - the filter paper comprises fibers comprising pulp fibers, - at least 80% by weight, preferably at least 90% by weight, particularly preferably at least 95% by weight and highly particularly preferably 100% by weight of the filter paper is formed by long-fiber pulp fibers, - of the fibers, a proportion with respect to the number of the fibers of between 2% and 10%, preferably between 3% and 9% and particularly preferably between 4% and 8% has a length of less than 0.2 mm, - the air permeability of the filter paper, measured in accordance with ISO 2965:2009, is between 500 cm·min -1 ·kPa -1 and 15000 cm·min -1 ·kPa -1 and preferably between 1000 cm·min -1 ·kPa -1 and 9000 cm·min -1 ·kPa -1 , - the number-averaged length of the fibers in the filter paper is greater than 1 mm and less than 5 mm, preferably greater than 2 mm and less than 4 mm, and - the number-averaged width of the fibers in the filter paper is between 10 μm and 50 μm, preferably between 20 μm and 40 μm, and particularly preferably between 25 μm and 35 μm.
A sorbent cartridge for using in a dialysis system, comprising at least two sensors located within the sorbent cartridge in at least two different locations within the sorbent cartridge and in at least two different material layers; and wherein the sorbent cartridge is in fluid communication with a dialysate flow loop circulating a dialysate between a dialyzer and the sorbent cartridge; characterized in that at least one material layer comprises one or more selected from a urease-containing material, alumina, zirconium phosphate, zirconium oxide, and activated carbon.
A method comprising: storing, by a hardware accelerator and in a plurality of memory storage areas in one or more memories on the hardware accelerator, input data for each processing time step of a plurality of processing time steps for processing sequential inputs to a machine learning model; for each processing time step of the plurality of processing time steps: accessing , by the hardware accelerator, a current value of a counter stored in a register within the hardware accelerator, the current value of the counter identifying the processing time step; determining , by the hardware accelerator and based on the current value of the processing time step counter, one or more memory storage areas that store the input data for the processing time step; facilitating , by the hardware accelerator, access of the input data for the processing time step from the one or more memory storage areas to at least one processor coupled to the one or more memory storage areas; and incrementing , by the hardware accelerator, the current value of the counter stored in the register. storing, by a hardware accelerator and in a plurality of memory storage areas in one or more memories on the hardware accelerator, input data for each processing time step of a plurality of processing time steps for processing sequential inputs to a machine learning model; for each processing time step of the plurality of processing time steps: accessing , by the hardware accelerator, a current value of a counter stored in a register within the hardware accelerator, the current value of the counter identifying the processing time step; determining , by the hardware accelerator and based on the current value of the processing time step counter, one or more memory storage areas that store the input data for the processing time step; facilitating , by the hardware accelerator, access of the input data for the processing time step from the one or more memory storage areas to at least one processor coupled to the one or more memory storage areas; and incrementing , by the hardware accelerator, the current value of the counter stored in the register. accessing , by the hardware accelerator, a current value of a counter stored in a register within the hardware accelerator, the current value of the counter identifying the processing time step; determining , by the hardware accelerator and based on the current value of the processing time step counter, one or more memory storage areas that store the input data for the processing time step; facilitating , by the hardware accelerator, access of the input data for the processing time step from the one or more memory storage areas to at least one processor coupled to the one or more memory storage areas; and incrementing , by the hardware accelerator, the current value of the counter stored in the register.
Installation for secure access to an upper part of a vehicle (B), said installation comprising: a fixed frame arranged along a line (C) of passage for said vehicle (B), said fixed frame including at least four, preferably merely four, uprights interconnected at their top ends by longitudinally and transversally extending support structures , a vertically movable support structure , movable relative to the fixed frame , and by said vertically movable support structure including a pair of transversal support beams extending transversally between a pair of said uprights positioned on each side of said line of passage (C), at least one longitudinal platform supported by said movable support structure , a first actuating device having one fixed part fixed relative to the fixed frame and a movable part attached to said movable support structure , to arrange for vertical movement, of the movable support structure , wherein adjacent each end of said transversal support beams there is arranged a movable anchoring device guided by said uprights to enable vertical movement but fixed positioning in other directions, characterized by a second actuating device having one part attached to a first fixing member fixated to said movable support structure and another part attached to a second fixing member attached to said longitudinal platform , to arrange for horizontal movement of the longitudinal platform on the support beams . a fixed frame arranged along a line (C) of passage for said vehicle (B), said fixed frame including at least four, preferably merely four, uprights interconnected at their top ends by longitudinally and transversally extending support structures , a vertically movable support structure , movable relative to the fixed frame , and by said vertically movable support structure including a pair of transversal support beams extending transversally between a pair of said uprights positioned on each side of said line of passage (C), at least one longitudinal platform supported by said movable support structure , a first actuating device having one fixed part fixed relative to the fixed frame and a movable part attached to said movable support structure , to arrange for vertical movement, of the movable support structure , wherein adjacent each end of said transversal support beams there is arranged a movable anchoring device guided by said uprights to enable vertical movement but fixed positioning in other directions, characterized by a second actuating device having one part attached to a first fixing member fixated to said movable support structure and another part attached to a second fixing member attached to said longitudinal platform , to arrange for horizontal movement of the longitudinal platform on the support beams .
An air conditioner comprising: a refrigerant circuit (Q) configured such that refrigerant sequentially circulates in a refrigeration cycle through a compressor , a condenser, an expansion valve , and an evaporator; and a control unit (K) configured to control at least the compressor and the expansion valve , wherein one of the condenser or the evaporator is an outdoor heat exchanger , and the other one of the condenser or the evaporator is an indoor heat exchanger , and the control unit (K) is configured to cause the indoor heat exchanger to function as the evaporator, and the control unit (K) is configured to thaw out the indoor heat exchanger , characterized in that the control unit (K) is further configured to cause a blower fan to rotate backward during freezing processing of freezing the indoor heat exchanger . a refrigerant circuit (Q) configured such that refrigerant sequentially circulates in a refrigeration cycle through a compressor , a condenser, an expansion valve , and an evaporator; and a control unit (K) configured to control at least the compressor and the expansion valve , wherein one of the condenser or the evaporator is an outdoor heat exchanger , and the other one of the condenser or the evaporator is an indoor heat exchanger , and the control unit (K) is configured to cause the indoor heat exchanger to function as the evaporator, and the control unit (K) is configured to thaw out the indoor heat exchanger , characterized in that the control unit (K) is further configured to cause a blower fan to rotate backward during freezing processing of freezing the indoor heat exchanger .
An axial-flow pump with a hybrid drive-bearing unit of its rotor, in particular a pump supporting heart functions, the pump comprising a ring-shaped stator provided with teeth with coils wound thereon or with coils placed on the inside, placed on a cylindrical bushing of the flow duct, inside which a rotor with blades is installed, wherein the blades are installed on the inside of the cylindrical rotor body, with at least one permanent drive magnet installed on the body, preferably a neodymium-based magnet, wherein the bearing system is formed in the post-axial direction as a result of magnetic interaction forces between the stator and the drive magnet or magnets, wherein the internal diameter (D4) of the flow duct bushing is constant along the length of the rotor body , increased by the range of working, post-axial shift of the rotor, whilst the external diameter (D3) of the rotor body is constant along its entire length and the thickness (D2-D1) of the drive magnet is also constant, characterised in that the internal diameter (D4) of the flow duct bushing is determined as one of the values in the range between 0,50 and 0,7 of the external diameter (D7) of the stator ring , in that the external diameter (D3) of the rotor body is determined as one of the values in the range between 1,1 and 1,3 of the internal diameter (D0) of the rotor body , in that the external diameter (D7) of the stator ring is between 1,4 and 1,7 of the sum of external diameter (D5) of the flow duct bushing and of the drive magnet thickness, and in that the thickness (D2-D1) of the drive magnet is determined as one of the values in the range determined using the following relationship: 0,55 ≤ D 2 + D 1 D 6 + D 5 + D 2 − D 1 ≤ 0,7 where D1 - internal diameter of drive magnets or of the single drive magnet, D2 - external diameter of drive magnets or of the single drive magnet, D5 - external diameter of the flow duct bushing , D6 - internal diameter of the stator ring , D1 - internal diameter of drive magnets or of the single drive magnet, D2 - external diameter of drive magnets or of the single drive magnet, D5 - external diameter of the flow duct bushing , D6 - internal diameter of the stator ring ,
A method of detecting aspiration pressure during aspiration of a liquid , comprising: attempting to aspirate a volume of a liquid into a probe wherein the attempted aspiration generates an aspiration frequency over an aspiration cycle and the total aspirated volume is less than 10 μL; measuring an aspiration pressure associated with the attempted aspiration of the liquid and providing a measured pressure signal; characterized in that the method further comprises: determining the aspiration frequency in the measured pressure signal and a dominant resonant frequency in the measured signal, filtering the measured pressure signal with a filter having a passband containing the aspiration frequency and attenuating frequencies of the disturbance causing noise in the measured pressure signal by setting a cutoff frequency between the aspiration frequency and the dominant resonant frequency wherein the passband contains frequencies in the range of 1Hz to 20Hz, to obtain a filtered pressure signal; and verifying at an evaluation point of the filtered pressure signal the effectiveness of the aspiration by comparing the filtered pressure signal to a pre-established threshold value at the evaluation point. attempting to aspirate a volume of a liquid into a probe wherein the attempted aspiration generates an aspiration frequency over an aspiration cycle and the total aspirated volume is less than 10 μL; measuring an aspiration pressure associated with the attempted aspiration of the liquid and providing a measured pressure signal; characterized in that the method further comprises: determining the aspiration frequency in the measured pressure signal and a dominant resonant frequency in the measured signal, filtering the measured pressure signal with a filter having a passband containing the aspiration frequency and attenuating frequencies of the disturbance causing noise in the measured pressure signal by setting a cutoff frequency between the aspiration frequency and the dominant resonant frequency wherein the passband contains frequencies in the range of 1Hz to 20Hz, to obtain a filtered pressure signal; and verifying at an evaluation point of the filtered pressure signal the effectiveness of the aspiration by comparing the filtered pressure signal to a pre-established threshold value at the evaluation point. determining the aspiration frequency in the measured pressure signal and a dominant resonant frequency in the measured signal, filtering the measured pressure signal with a filter having a passband containing the aspiration frequency and attenuating frequencies of the disturbance causing noise in the measured pressure signal by setting a cutoff frequency between the aspiration frequency and the dominant resonant frequency wherein the passband contains frequencies in the range of 1Hz to 20Hz, to obtain a filtered pressure signal; and verifying at an evaluation point of the filtered pressure signal the effectiveness of the aspiration by comparing the filtered pressure signal to a pre-established threshold value at the evaluation point.
A suture anchor and delivery kit, comprising a delivery tool having a handle with an elongate shaft extending distally therefrom, the shaft having an inner lumen extending therethrough, the inner lumen having an open proximal end, an open distal end and a cross-section with a primary region for receiving a drill bit and a secondary offset region ; a suture anchor assembly having an anchor configured to be implanted in bone, and a suture (S) configured to be coupled to the anchor; characterized in that the kit further comprises the drill bit , adapted to form a bone hole for the anchor ; and the suture (S) is configured to extend through the inner lumen in the shaft and to sit within the secondary offset region such that the drill bit can be passed into the open proximal end of the inner lumen in the shaft , through the primary region of the inner lumen and out of the open distal end of the inner lumen without contacting the suture (S). an anchor configured to be implanted in bone, and a suture (S) configured to be coupled to the anchor;
Implementation system of a chroma key shooting set, usable for streaming video conferencing, comprising: - a first chroma key screen as a background for a shooting scene and associated with a first support configured to support the first screen in a vertical position relative to a walking surface ; - at least one second chroma key screen arranged at one end of the first screen and so as to form a first side wall of the shooting scene; the second screen being associated with a second support configured to support the second screen vertically and so that an opening is identified between the end of the first screen and the second screen with vertical development; - a portable lighting apparatus arranged in proximity to said opening and external to the shooting scene and so as to illuminate said scene and at least the first screen ; - a carpet disposed on the walking surface at the shooting scene, the carpet comprising graphic traces indicative of positions in which to arrange the supports of said screens. - a first chroma key screen as a background for a shooting scene and associated with a first support configured to support the first screen in a vertical position relative to a walking surface ; - at least one second chroma key screen arranged at one end of the first screen and so as to form a first side wall of the shooting scene; the second screen being associated with a second support configured to support the second screen vertically and so that an opening is identified between the end of the first screen and the second screen with vertical development; - a portable lighting apparatus arranged in proximity to said opening and external to the shooting scene and so as to illuminate said scene and at least the first screen ; - a carpet disposed on the walking surface at the shooting scene, the carpet comprising graphic traces indicative of positions in which to arrange the supports of said screens.
A component (62;64) for a gas turbine engine comprising: an airfoil (68;74) having a first end; and a first platform (72;82) located at the first end of the airfoil (68;74), characterized by comprising: a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion ; and a single fillet separated from the compound fillet (120;102) by a transition fillet , wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion . an airfoil (68;74) having a first end; and a first platform (72;82) located at the first end of the airfoil (68;74), characterized by comprising: a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion ; and a single fillet separated from the compound fillet (120;102) by a transition fillet , wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion . a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion ; and a single fillet separated from the compound fillet (120;102) by a transition fillet , wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion .
A method of identifying a risk of an acute kidney injury occurring following a cardiac surgery requiring cardiopulmonary bypass in a patient, comprising: in a urine sample that has been obtained from the patient following performing a remote ischemic preconditioning procedure on the patient and prior to performing the cardiac surgery requiring cardiopulmonary bypass, performing a first assay which measures Insulin-like growth factor-binding protein 7 to provide a first assay result, and a second assay which measures metallopeptidase inhibitor 2 to provide a second assay result; using the first and second assay results to provide a combined assay result which is a single composite value that is a function of the first and second assay results; correlating the single composite value to a likelihood that the subject is at risk of an acute kidney injury following the cardiac surgery requiring cardiopulmonary bypass by comparing the single composite value to a predetermined threshold selected to be indicative of a likelihood of acute kidney injury following the cardiac surgery requiring cardiopulmonary bypass, wherein when the single composite value is below the threshold, the patient is at an increased risk of acute kidney injury resulting from the cardiac surgery requiring cardiopulmonary bypass relative to a risk when the single composite value is above the threshold. in a urine sample that has been obtained from the patient following performing a remote ischemic preconditioning procedure on the patient and prior to performing the cardiac surgery requiring cardiopulmonary bypass, performing a first assay which measures Insulin-like growth factor-binding protein 7 to provide a first assay result, and a second assay which measures metallopeptidase inhibitor 2 to provide a second assay result; using the first and second assay results to provide a combined assay result which is a single composite value that is a function of the first and second assay results; correlating the single composite value to a likelihood that the subject is at risk of an acute kidney injury following the cardiac surgery requiring cardiopulmonary bypass by comparing the single composite value to a predetermined threshold selected to be indicative of a likelihood of acute kidney injury following the cardiac surgery requiring cardiopulmonary bypass, wherein when the single composite value is below the threshold, the patient is at an increased risk of acute kidney injury resulting from the cardiac surgery requiring cardiopulmonary bypass relative to a risk when the single composite value is above the threshold.