mhurhangee/patent-ind-claim-en huggingface dataset:
A capacitor , comprising: a) a casing ; b) a first anode of a first anode active material and a second anode of a second anode active material, wherein the first and second anodes are housed inside the casing ; c) a cathode comprising a cathode current collector having opposed first and second major faces supporting a first cathode active material thereon; d) a first separator envelope (36; 114; 134) housing the cathode so that the first cathode active material resides between and is aligned with the first and second anodes ; e) an electrolyte contacting the cathode and the first and second anodes ; and characterized by f) a second separator envelope (44; 116; 144) housing the first and second anodes and the intermediate first separator envelope (36; 114; 134), the first separator envelope (36; 114; 134) in turn housing the cathode comprising the first cathode active material supported on the opposed first and second major faces of the cathode current collector , the cathode residing between the first and second anodes . a) a casing ; b) a first anode of a first anode active material and a second anode of a second anode active material, wherein the first and second anodes are housed inside the casing ; c) a cathode comprising a cathode current collector having opposed first and second major faces supporting a first cathode active material thereon; d) a first separator envelope (36; 114; 134) housing the cathode so that the first cathode active material resides between and is aligned with the first and second anodes ; e) an electrolyte contacting the cathode and the first and second anodes ; and characterized by f) a second separator envelope (44; 116; 144) housing the first and second anodes and the intermediate first separator envelope (36; 114; 134), the first separator envelope (36; 114; 134) in turn housing the cathode comprising the first cathode active material supported on the opposed first and second major faces of the cathode current collector , the cathode residing between the first and second anodes .
An aerator for a faucet for dispensing boiling water and/or water containing CO 2 , comprising a housing having an inlet opening , an outlet opening , a swirl-generating section arranged in the region of the inlet opening and having a substantially helically extending flow guide (7a-7d) for rotational acceleration of a flow of water passing therethrough, and a guide section in which the rotational movement of the flow of water is braked and the latter is guided in the longitudinal direction, characterized in that the housing is substantially cylindrical and has an expansion zone following the swirl-generating section , in which expansion zone the rotationally accelerated water flow can flow under centrifugal force in the region of the housing inner wall.
A proprotein convertase subtilisin-kexin type 9 (PCSK9) inhibitor for use in treating a patient who has received or is currently receiving an intensive statin therapy treatment, who has a high genetic risk of major adverse cardiovascular event (MACE) despite intensive statin therapy, by determining the patient's coronary artery disease polygenic risk score (CAD-PRS), wherein the CAD-PRS comprises a weighted sum of a plurality of genetic variants comprising at least 6,500,000 genetic variants and their corresponding association effect sizes with coronary artery disease and wherein the CAD-PRS is calculated using the LDPred method or the pruning and thresholding method; identifying the patient as having a high genetic risk of MACE despite intensive statin therapy if the patient has a CAD-PRS greater than the 90 th percentile-determined from a reference population comprising at least 10,000 patients; and wherein genetic variant performance is calculated with respect to coronary artery disease risk based on statistical significance, strength of association, and/or a probability distribution. determining the patient's coronary artery disease polygenic risk score (CAD-PRS), wherein the CAD-PRS comprises a weighted sum of a plurality of genetic variants comprising at least 6,500,000 genetic variants and their corresponding association effect sizes with coronary artery disease and wherein the CAD-PRS is calculated using the LDPred method or the pruning and thresholding method; identifying the patient as having a high genetic risk of MACE despite intensive statin therapy if the patient has a CAD-PRS greater than the 90 th percentile-determined from a reference population comprising at least 10,000 patients; and wherein genetic variant performance is calculated with respect to coronary artery disease risk based on statistical significance, strength of association, and/or a probability distribution.
A method for making a cement composition for orthopedic or dental applications comprising: mixing a powder component with a liquid component and a metal to form a gaseous solution, wherein the metal comprises magnesium and reacts with water in the liquid component to produce hydrogen gas bubbles in the gaseous solution; and allowing the gaseous solution to set into a hardened porous mass, wherein the hydrogen gas bubbles create pores in the hardened mass; wherein the liquid component comprises silica; and wherein the powder component is a post-microwaved powder prepared by mixing a powder with a setting solution to form a paste, and irradiating the paste with microwaves to form the post-microwaved powder. mixing a powder component with a liquid component and a metal to form a gaseous solution, wherein the metal comprises magnesium and reacts with water in the liquid component to produce hydrogen gas bubbles in the gaseous solution; and allowing the gaseous solution to set into a hardened porous mass, wherein the hydrogen gas bubbles create pores in the hardened mass; wherein the liquid component comprises silica; and wherein the powder component is a post-microwaved powder prepared by mixing a powder with a setting solution to form a paste, and irradiating the paste with microwaves to form the post-microwaved powder.
A method for producing titanium oxide fine particles having a BET diameter of 1 to 50 nm, an agglomerated particle of 1 to 200 nm as diameter of an agglomerated particle formed by the titanium oxide fine particles, the diameter of the agglomerated particle being measured by using a laser diffraction/scattering particle size distribution analyzer, a value of 1 to 40 as a ratio therebetween, namely, a ratio of the agglomerated particle diameter/the BET diameter, a crystallite diameter from 20 to 250 Å, the crystallite diameter being measured by using an X-ray diffractometer, a specific surface area from 50 to 400 m 2 /g, the specific surface area being determined by using a flow type specific surface area automatic measuring device by nitrogen adsorption method, and a purity of 99% or more, the purity being measured by ICP analysis, wherein pore volume of pores having a pore diameter in the range of 1 to 100 nm is in the range of 0.2 to 0.7 ml/g and the pore volume is measured by using an automatic specific surface area/pore size distribution measurement instrument in accordance with BJH method, comprising: a step of mixing an alkali into an aqueous solution including a titanium chloride or titanium oxychloride and at least one selected from citric acid and salt thereof to have a pH of the aqueous solution within a range of 0 to 9, followed by heating the aqueous solution to a temperature of 50 to 110°C, and thereby conducting a hydrolysis of the titanium chloride or titanium oxychloride.
Sintered hard material body with at least one marking on a surface of the hard material body , wherein the marking is formed as an arrangement of a plurality of discrete information elements in the form of depressions in the surface of the hard material body , - - wherein at least some of the information elements have a longest dimension (D) smaller than 500 μm in a plan view and wherein the information elements form at least part of a matrix code or a bar code and wherein - - the information elements are introduced by an energy beam before a sintering step and are at least partially covered by a sintering surface and wherein - - the depressions have a profile depth (t) of between 5 and 100 μm. - - wherein at least some of the information elements have a longest dimension (D) smaller than 500 μm in a plan view and wherein the information elements form at least part of a matrix code or a bar code and wherein - - the information elements are introduced by an energy beam before a sintering step and are at least partially covered by a sintering surface and wherein - - the depressions have a profile depth (t) of between 5 and 100 μm.
An orthopaedic knee implant comprising: a femoral component configured to be coupled to a distal end of a patient's femur, the femoral component comprising (i) a substrate comprising a titanium alloy having (a) a condylar surface that is curved in a sagittal plane and (b) a bone-facing surface positioned opposite the condylar surface; and (ii) a coating disposed on the condylar surface, the coating comprising (a) a bonding layer comprising niobium, zirconium, titanium, tantalum, platinum, molybdenum, an alloy thereof, or combinations thereof, (b) an outer ceramic layer , and characterized in that the coating comprises: (c) a plurality of alternating sublayers positioned between and interconnecting the bonding layer and the outer ceramic layer, wherein (i) the plurality of alternating sublayers are configured to resist crack propagation from the outer ceramic layer, the plurality of alternating sublayers include a number of metallic sublayers and a number of ceramic sublayers that are harder than the metallic sublayers, and (ii) the outer ceramic layer forms an outer articular surface of the femoral component and is shaped to contact a concave proximal surface of a tibial bearing. (i) a substrate comprising a titanium alloy having (a) a condylar surface that is curved in a sagittal plane and (b) a bone-facing surface positioned opposite the condylar surface; and (ii) a coating disposed on the condylar surface, the coating comprising (a) a bonding layer comprising niobium, zirconium, titanium, tantalum, platinum, molybdenum, an alloy thereof, or combinations thereof, (b) an outer ceramic layer , and characterized in that the coating comprises: (c) a plurality of alternating sublayers positioned between and interconnecting the bonding layer and the outer ceramic layer,
An article of footwear comprising: an upper ; a sole structure that has a heel portion with a rear , a lateral side , and a medial side , wherein the sole structure includes an outsole ; and a heel extender , wherein an inner surface of the heel extender is secured to the upper , and the heel extender includes: a flange ; a rear segment disposed at the rear of the heel portion , a lateral arm disposed at the lateral side of the heel portion , and a medial arm disposed at the medial side of the heel portion ; a medial wing portion extending upwardly from the medial arm ; a lateral wing portion extending upwardly from the lateral arm ; and a protuberance that establishes a rear extent of the article of footwear ; wherein the sole structure has a first hardness and the protuberance has a second hardness greater than the first hardness, characterized in that the protuberance establishes a rearmost extent of the article of footwear ; and that an outer surface of the heel extender at the flange is secured to the outsole such that the flange is between the outsole and the upper . an upper ; a sole structure that has a heel portion with a rear , a lateral side , and a medial side , wherein the sole structure includes an outsole ; and a heel extender , wherein an inner surface of the heel extender is secured to the upper , and the heel extender includes: a flange ; a rear segment disposed at the rear of the heel portion , a lateral arm disposed at the lateral side of the heel portion , and a medial arm disposed at the medial side of the heel portion ; a medial wing portion extending upwardly from the medial arm ; a lateral wing portion extending upwardly from the lateral arm ; and a protuberance that establishes a rear extent of the article of footwear ; wherein the sole structure has a first hardness and the protuberance has a second hardness greater than the first hardness, a flange ; a rear segment disposed at the rear of the heel portion , a lateral arm disposed at the lateral side of the heel portion , and a medial arm disposed at the medial side of the heel portion ; a medial wing portion extending upwardly from the medial arm ; a lateral wing portion extending upwardly from the lateral arm ; and a protuberance that establishes a rear extent of the article of footwear ; wherein the sole structure has a first hardness and the protuberance has a second hardness greater than the first hardness, characterized in that the protuberance establishes a rearmost extent of the article of footwear ; and that an outer surface of the heel extender at the flange is secured to the outsole such that the flange is between the outsole and the upper .
A system comprising any of an industrial control system , one or more servers , or a cloud-computing device , the system being configured to: receive a first set of data associated with an industrial automation component of a first factory (A), wherein the industrial automation component is associated with a first industrial automation system ; receive a second set of data associated with one or more other industrial automation components of one or more other factories (B, C, D), wherein the one or more other industrial automation components are associated with one or more other industrial automation systems, wherein the first and second sets of data comprise energy consumption data, productivity data, maintenance data, operational data, or any combination thereof, and include data that are related to similar components or a group of components operating together in a similar manner; identify one or more similar patterns in the first set of data and the second set of data; analyze the first set of data with respect to the identified patterns to determine additional details with regard to operations or efficiency of industrial automation components of the first factory; and adjust a first set of operations of the industrial automation component based on the similar patterns and the analysis . receive a first set of data associated with an industrial automation component of a first factory (A), wherein the industrial automation component is associated with a first industrial automation system ; receive a second set of data associated with one or more other industrial automation components of one or more other factories (B, C, D), wherein the one or more other industrial automation components are associated with one or more other industrial automation systems, wherein the first and second sets of data comprise energy consumption data, productivity data, maintenance data, operational data, or any combination thereof, and include data that are related to similar components or a group of components operating together in a similar manner; identify one or more similar patterns in the first set of data and the second set of data; analyze the first set of data with respect to the identified patterns to determine additional details with regard to operations or efficiency of industrial automation components of the first factory; and adjust a first set of operations of the industrial automation component based on the similar patterns and the analysis .
A medical sensing system , comprising: a probe unit , the probe unit comprising an ultrasound sensing means , and at least one electrode for use in electrocardiogram, ECG, measurement; and a controller operably coupled with the probe, and the controller comprising an atlas dataset storing reference ultrasound data associated with each of a plurality of possible locations of the probe relative to the body, and comprising a datastore storing a plurality of reference target electrode locations relative to the body for different ECG measurements, the controller being configured in at least one operation mode to control the ultrasound sensing means to acquire ultrasound data, and to implement a position guidance function configured to generate guidance information for a user for positioning the probe in one or more of the reference electrode locations based on the acquired ultrasound data, and based on reference to the atlas dataset. a probe unit , the probe unit comprising an ultrasound sensing means , and at least one electrode for use in electrocardiogram, ECG, measurement; and a controller operably coupled with the probe, and the controller comprising an atlas dataset storing reference ultrasound data associated with each of a plurality of possible locations of the probe relative to the body, and comprising a datastore storing a plurality of reference target electrode locations relative to the body for different ECG measurements, the controller being configured in at least one operation mode to control the ultrasound sensing means to acquire ultrasound data, and to implement a position guidance function configured to generate guidance information for a user for positioning the probe in one or more of the reference electrode locations based on the acquired ultrasound data, and based on reference to the atlas dataset.
A method of controlling an angle of attack of a rotor blade during a braking process of a rotor of a wind energy installation , the rotor comprising the rotor blade , wherein, during the braking process, a time-dependent target rotational speed (S) is specified as a reference variable of a rotational speed controller of the wind energy installation , wherein a rotational speed of the rotor of the wind energy installation is controlled by the rotational speed controller , which, in order to control the rotational speed, changes the angle of attack of the rotor blade , characterised in that , during the braking process, the purpose of which is a reduction in the rotational speed of the rotor, the target rotational speed (S) increases at least during some parts of the braking process.
Brake system for a trailer vehicle , having - a brake circuit which has at least one wheel-brake element and through which a brake medium is able to flow, - an actuating device by means of which a brake pressure, corresponding to a braking position of the wheel-brake element , in the brake circuit is settable, - an inlet valve which is arranged in the brake circuit between the actuating device and the wheel-brake element , - a control unit by means of which the inlet valve is adjustable into a blocking position in which the inlet valve blocks a flow of the brake medium towards the wheel-brake element , - a brake-pressure sensor by means of which the control unit is able to be provided with a sensor signal that characterizes the brake pressure, and - a wheel-rotational-speed sensor arrangement by means of which the control unit is able to be provided with a wheel-rotational-speed signal, characterized in that the control unit is configured such that, - according to the sensor signal characterizing the brake pressure and to the wheel-rotational-speed signal, it detects reverse travel of the trailer vehicle , and, - according to the detected reverse travel, it adjusts the inlet valve into the blocking position during the period of the reverse travel. - a brake circuit which has at least one wheel-brake element and through which a brake medium is able to flow, - an actuating device by means of which a brake pressure, corresponding to a braking position of the wheel-brake element , in the brake circuit is settable, - an inlet valve which is arranged in the brake circuit between the actuating device and the wheel-brake element , - a control unit by means of which the inlet valve is adjustable into a blocking position in which the inlet valve blocks a flow of the brake medium towards the wheel-brake element , - a brake-pressure sensor by means of which the control unit is able to be provided with a sensor signal that characterizes the brake pressure, and - a wheel-rotational-speed sensor arrangement by means of which the control unit is able to be provided with a wheel-rotational-speed signal, characterized in that the control unit is configured such that, - according to the sensor signal characterizing the brake pressure and to the wheel-rotational-speed signal, it detects reverse travel of the trailer vehicle , and, - according to the detected reverse travel, it adjusts the inlet valve into the blocking position during the period of the reverse travel.
A method for beam management by a user equipment (UE) in a wireless communication system, the method comprising: identifying a plurality of resources corresponding to different transmit (Tx) beams configured for measurement by the UE; measuring a layer one reference signal received power (L1-RSRP) for the plurality of resources; determining a selected Tx beam of the different Tx beams based on the measured L1-RSRP for the plurality of resources, wherein an L1-RSRP value corresponding to the selected Tx beam is measured with a predetermined L1-RSRP accuracy to provide that the selected Tx beam is within a number of largest L1-RSRP values of the measured L1-RSRP of the different Tx beams; and wherein a single sample of L1-RSRP is measured for each of the plurality of resources; and generating a report including an indication of the selected Tx beam and the L1-RSRP value measured with the predetermined L1-RSRP accuracy wherein the plurality of resources is configured as channel state information reference signal (CSI-RS) resources corresponding to the different Tx beams, and wherein the predetermined L1_RSRP accuracy for the CSI-RS transmitted with a density of 3 and a bandwidth of 48 physical resource blocks (PRBs) is ± 4.5dB when the corresponding SNR is at least -3dB. identifying a plurality of resources corresponding to different transmit (Tx) beams configured for measurement by the UE; measuring a layer one reference signal received power (L1-RSRP) for the plurality of resources; determining a selected Tx beam of the different Tx beams based on the measured L1-RSRP for the plurality of resources, wherein an L1-RSRP value corresponding to the selected Tx beam is measured with a predetermined L1-RSRP accuracy to provide that the selected Tx beam is within a number of largest L1-RSRP values of the measured L1-RSRP of the different Tx beams; and wherein a single sample of L1-RSRP is measured for each of the plurality of resources; and generating a report including an indication of the selected Tx beam and the L1-RSRP value measured with the predetermined L1-RSRP accuracy wherein the plurality of resources is configured as channel state information reference signal (CSI-RS) resources corresponding to the different Tx beams, and wherein the predetermined L1_RSRP accuracy for the CSI-RS transmitted with a density of 3 and a bandwidth of 48 physical resource blocks (PRBs) is ± 4.5dB when the corresponding SNR is at least -3dB.