mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthesis foot adapter for a prosthesis with - a prosthetic foot with a forefoot area and a heel area , - a prosthetic lower leg which has a longitudinal axis , for arranging the prosthetic foot on the prosthetic lower leg , wherein the prosthetic foot adapter comprises - an upper part for fixing it to the prosthetic lower leg such that it is torque-proof in relation to a sagittal plane, - a lower part for fixing it to the prosthetic foot such that it is torque-proof in relation to a sagittal plane, and - a resistance element , wherein the upper part can be swiveled on the lower part about a swivel axis against a resistance exerted by the resistance element , said swivel axis extending from the heel area to the forefoot area , characterized in that the swivel axis and the longitudinal axis form an angle that is not 90°, wherein the swivel axis is tilted towards the forefoot area . - a prosthetic foot with a forefoot area and a heel area , - a prosthetic lower leg which has a longitudinal axis , for arranging the prosthetic foot on the prosthetic lower leg , wherein the prosthetic foot adapter comprises - an upper part for fixing it to the prosthetic lower leg such that it is torque-proof in relation to a sagittal plane, - a lower part for fixing it to the prosthetic foot such that it is torque-proof in relation to a sagittal plane, and - a resistance element , wherein the upper part can be swiveled on the lower part about a swivel axis against a resistance exerted by the resistance element , said swivel axis extending from the heel area to the forefoot area , characterized in that the swivel axis and the longitudinal axis form an angle that is not 90°, wherein the swivel axis is tilted towards the forefoot area .
A wearable battery pack comprising: a battery pack body having a plurality of cylindrical battery cells and a housing containing the battery cells; a wearable device for being worn by a user so that the battery pack body at least be carried by the user on the back; wherein the battery pack body has: at least one heat dissipation channel extending from one side of the battery pack body to the opposite side; the side of the battery pack body, which is penetrated by the heat dissipation channel is located between the back of the user and the other side when the user carries the battery pack body, characterized in that the plurality of battery cells is arranged around forming at least one cell channel , the cell channel being parallel to the length direction of the battery cells, the heat dissipation channel passing through the cell channel. a battery pack body having a plurality of cylindrical battery cells and a housing containing the battery cells; a wearable device for being worn by a user so that the battery pack body at least be carried by the user on the back; at least one heat dissipation channel extending from one side of the battery pack body to the opposite side; the side of the battery pack body, which is penetrated by the heat dissipation channel is located between the back of the user and the other side when the user carries the battery pack body, characterized in that the plurality of battery cells is arranged around forming at least one cell channel , the cell channel being parallel to the length direction of the battery cells, the heat dissipation channel passing through the cell channel.
Clutch arrangement for a hybrid vehicle, comprising - an input shaft and an output shaft which is arranged coaxially with respect to the former, - a friction clutch and a positively locking clutch which are arranged functionally in parallel between the input shaft and the output shaft , - the friction clutch having a friction unit which can be actuated by way of associated actuating means , and - the positively locking clutch having a positively locking unit which can be actuated by way of associated actuating means , characterized in that the positively locking clutch is configured as a centrifugal clutch for speed-dependent automatic actuation, the associated actuating means being operatively connected to the input shaft or the output shaft . - an input shaft and an output shaft which is arranged coaxially with respect to the former, - a friction clutch and a positively locking clutch which are arranged functionally in parallel between the input shaft and the output shaft , - the friction clutch having a friction unit which can be actuated by way of associated actuating means , and - the positively locking clutch having a positively locking unit which can be actuated by way of associated actuating means , characterized in that the positively locking clutch is configured as a centrifugal clutch for speed-dependent automatic actuation, the associated actuating means being operatively connected to the input shaft or the output shaft .
A method performed by a base station , the base station defining a cell , the method comprising: determining whether the cell supports aerial service, wherein aerial service comprises providing wireless communication to an aerial User Equipment, UE ; broadcasting terrestrial cell barring parameters associated with the cell ; broadcasting aerial cell barring parameters associated with the cell when the cell supports aerial service; wherein the aerial cell barring parameters comprise at least one threshold for determining whether the UE will be subjected to an aerial cell barring scheme; and wherein the at least one threshold comprises a height threshold for determining an airborne state of the UE. determining whether the cell supports aerial service, wherein aerial service comprises providing wireless communication to an aerial User Equipment, UE ; broadcasting terrestrial cell barring parameters associated with the cell ; broadcasting aerial cell barring parameters associated with the cell when the cell supports aerial service; wherein the aerial cell barring parameters comprise at least one threshold for determining whether the UE will be subjected to an aerial cell barring scheme; and wherein the at least one threshold comprises a height threshold for determining an airborne state of the UE.
A method of controlling a front compartment lid of a vehicle, said vehicle comprising a control unit , a front compartment with a lid , an electrically controlled front compartment lid locking and/or opening mechanism and at least one vehicle door handle , characterized in that the method comprises following steps: - monitoring of a status of said at least one vehicle door handle by receiving in the control unit of data from a sensor for angular position of said door handle between open position and closed position; - monitoring at least of locking status of said locking and/or opening mechanism of the front compartment lid ; - comparing said data from the vehicle door handle sensor with a preset threshold value of the angular position of said door handle ; - in case of matching said vehicle door handle sensor data with said preset threshold value, generating a control signal to the locking and/or opening mechanism of the front compartment lid , said control signal being generated also depending at least on the current locking status of the locking and/or opening mechanism of the front compartment lid . - monitoring of a status of said at least one vehicle door handle by receiving in the control unit of data from a sensor for angular position of said door handle between open position and closed position; - monitoring at least of locking status of said locking and/or opening mechanism of the front compartment lid ; - comparing said data from the vehicle door handle sensor with a preset threshold value of the angular position of said door handle ; - in case of matching said vehicle door handle sensor data with said preset threshold value, generating a control signal to the locking and/or opening mechanism of the front compartment lid , said control signal being generated also depending at least on the current locking status of the locking and/or opening mechanism of the front compartment lid .
Sensor , having - a circuit carrier , - a number of attachment inductances , and - at least one printed circuit board inductance , which is coupled to the attachment inductances , - wherein the attachment inductances are applied to the circuit carrier using SMD technology - wherein the printed circuit board inductance is implemented underneath the attachment inductances in the circuit carrier , - wherein the printed circuit board inductance is a reference inductance (LP) and the attachment inductances are respective measurement inductances (LS); or - wherein at least one of the attachment inductances is a reference inductance (LP) and the printed circuit board inductance is a measurement inductance (LS), having - a capacitance (CP), which is interconnected with the reference inductance (LP) to form a parallel resonant circuit, and - an electronic control unit (μC), - wherein the electronic control unit (μC) is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (μC) is connected directly to each of the measurement inductances (LS) and is configured to measure a value, which indicates at least one measurement variable, at the respective measurement inductance (LS) . - a circuit carrier , - a number of attachment inductances , and - at least one printed circuit board inductance , which is coupled to the attachment inductances , - wherein the attachment inductances are applied to the circuit carrier using SMD technology - wherein the printed circuit board inductance is implemented underneath the attachment inductances in the circuit carrier , - wherein the printed circuit board inductance is a reference inductance (LP) and the attachment inductances are respective measurement inductances (LS); or - wherein at least one of the attachment inductances is a reference inductance (LP) and the printed circuit board inductance is a measurement inductance (LS), having - a capacitance (CP), which is interconnected with the reference inductance (LP) to form a parallel resonant circuit, and - an electronic control unit (μC), - wherein the electronic control unit (μC) is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (μC) is connected directly to each of the measurement inductances (LS) and is configured to measure a value, which indicates at least one measurement variable, at the respective measurement inductance (LS) .
Device for skin gloss detection, said device comprising: - an illumination unit configured to illuminate a skin area at a flashing rate, - an imaging unit configured to acquire images of the skin area at an imaging rate, which is different than said flashing rate, wherein images of the skin area while the illumination by said illumination unit is on and images of the skin area while the illumination by said illumination unit is off are acquired, and - a processing unit configured to process acquired images by detecting the amount of gloss in the skin area from a specular reflection component and a diffuse component in at least one first partial image of the skin area representing a portion of an image acquired by the imaging unit while the skin area is illuminated by said illumination unit and at least one second partial image of the skin area representing a portion of an image acquired by the imaging unit while the skin area is not illuminated by said illumination unit. - an illumination unit configured to illuminate a skin area at a flashing rate, - an imaging unit configured to acquire images of the skin area at an imaging rate, which is different than said flashing rate, wherein images of the skin area while the illumination by said illumination unit is on and images of the skin area while the illumination by said illumination unit is off are acquired, and - a processing unit configured to process acquired images by detecting the amount of gloss in the skin area from a specular reflection component and a diffuse component in at least one first partial image of the skin area representing a portion of an image acquired by the imaging unit while the skin area is illuminated by said illumination unit and at least one second partial image of the skin area representing a portion of an image acquired by the imaging unit while the skin area is not illuminated by said illumination unit.
An outboard motor comprising: a duct including a circular hole ; a propeller arranged in the circular hole , the propeller including a boss and a plurality of blades radially extending from the boss ; a central shaft that rotatably supports the propeller ; and a plurality of fins extending radially from the central shaft and connecting the central shaft and the duct , the plurality of fins having an airfoil profile, characterized in that that the number of fins is three and the number of blades is four. a duct including a circular hole ; a propeller arranged in the circular hole , the propeller including a boss and a plurality of blades radially extending from the boss ; a central shaft that rotatably supports the propeller ; and a plurality of fins extending radially from the central shaft and connecting the central shaft and the duct , the plurality of fins having an airfoil profile, characterized in that that the number of fins is three and the number of blades is four.
A method of determining a region attribute, comprising: identifying (S101) a marker line in a target map, wherein the target map is a map of a to-be-cleaned target scene, which an intelligent cleaning device relies on during a cleaning process; determining (S102) an unenclosed region with a first position as a reference point and an enclosed region in the target map, based on the identified marker line and an auxiliary object in the target map, wherein the auxiliary object includes a map boundary and an obstacle, and the first position is a position of a preset reference object in the target map; determining (S103) the enclosed region as a user-defined cleaning region for the cleaning process of the intelligent cleaning device; and determining (S103) the unenclosed region as a normal cleaning region for the cleaning process of the intelligent cleaning device, characterized in that the marker line comprises a straight line or a polyline; the enclosed region is a region enclosed by the marker line and a target auxiliary object and excluding the first position, and the target auxiliary object is an auxiliary object that intersects with the marker line in the target map. identifying (S101) a marker line in a target map, wherein the target map is a map of a to-be-cleaned target scene, which an intelligent cleaning device relies on during a cleaning process; determining (S102) an unenclosed region with a first position as a reference point and an enclosed region in the target map, based on the identified marker line and an auxiliary object in the target map, wherein the auxiliary object includes a map boundary and an obstacle, and the first position is a position of a preset reference object in the target map; determining (S103) the enclosed region as a user-defined cleaning region for the cleaning process of the intelligent cleaning device; and determining (S103) the unenclosed region as a normal cleaning region for the cleaning process of the intelligent cleaning device, characterized in that the marker line comprises a straight line or a polyline; the enclosed region is a region enclosed by the marker line and a target auxiliary object and excluding the first position, and the target auxiliary object is an auxiliary object that intersects with the marker line in the target map.
An apparatus for sensing the value of a physical parameter at a sensing location, the apparatus comprising: a transmitter element configured to generate and transmit a pulsed electromagnetic wave ; a sensing element , galvanically isolated from the transmitter element and configured to be positioned at or adjacent to the sensing location, wherein: the sensing element comprises a capacitive element (C) and a resistive element (R) connected in a loop such that, responsive to the sensing element receiving the pulsed electromagnetic wave, the sensing element generates an oscillating electromagnetic wave that changes responsive to an impedance of the resistive element; and the resistive element is configured such that an impedance of the resistive element changes responsive to changes in the physical parameter in the vicinity of the sensing element; and a detection element , galvanically isolated from the sensing element, and configured to detect the oscillating electromagnetic wave and process the detected oscillating electromagnetic wave to estimate a value of the physical parameter at the sensing location. a transmitter element configured to generate and transmit a pulsed electromagnetic wave ; a sensing element , galvanically isolated from the transmitter element and configured to be positioned at or adjacent to the sensing location, wherein: the sensing element comprises a capacitive element (C) and a resistive element (R) connected in a loop such that, responsive to the sensing element receiving the pulsed electromagnetic wave, the sensing element generates an oscillating electromagnetic wave that changes responsive to an impedance of the resistive element; and the resistive element is configured such that an impedance of the resistive element changes responsive to changes in the physical parameter in the vicinity of the sensing element; and the sensing element comprises a capacitive element (C) and a resistive element (R) connected in a loop such that, responsive to the sensing element receiving the pulsed electromagnetic wave, the sensing element generates an oscillating electromagnetic wave that changes responsive to an impedance of the resistive element; and the resistive element is configured such that an impedance of the resistive element changes responsive to changes in the physical parameter in the vicinity of the sensing element; and a detection element , galvanically isolated from the sensing element, and configured to detect the oscillating electromagnetic wave and process the detected oscillating electromagnetic wave to estimate a value of the physical parameter at the sensing location.
A melt blown nonwoven fabric comprising a resin composition including a polyethylene terephthalate-series resin in a proportion of 98 wt% or more, wherein the melt blown nonwoven fabric has a surface shrinkage ratio at 200°C of 20% or lower and a longitudinal 10% modulus (M MD ) at 30°C of 22 N/5cm or lower, wherein the surface shrinkage ratio and the longitudinal 10% modulus (M MD ) are measured as set out in the specification, wherein the melt blown nonwoven fabric is obtainable by a method comprising heating a resin composition including a crystalline thermoplastic resin to give a melt and discharging the melt with accompanying jet through nozzle holes to give fiber materials ; heating the fiber materials discharged through the nozzle holes in a heating zone ; exposing the heated fiber materials to outside air in an air gap zone to cool the fiber materials ; and collecting the cooled fiber materials on a collecting surface to obtain a web, wherein at least a part of the heating zone is heated to a crystallization temperature of the crystalline thermoplastic resin or higher; and the air gap zone is a space between a lower edge of the heating zone and the collecting surface , the space having a distance L of 5 cm or longer in a line extending downwardly from the nozzle holes in a vertical direction. heating a resin composition including a crystalline thermoplastic resin to give a melt and discharging the melt with accompanying jet through nozzle holes to give fiber materials ; heating the fiber materials discharged through the nozzle holes in a heating zone ; exposing the heated fiber materials to outside air in an air gap zone to cool the fiber materials ; and collecting the cooled fiber materials on a collecting surface to obtain a web, wherein at least a part of the heating zone is heated to a crystallization temperature of the crystalline thermoplastic resin or higher; and the air gap zone is a space between a lower edge of the heating zone and the collecting surface , the space having a distance L of 5 cm or longer in a line extending downwardly from the nozzle holes in a vertical direction.
Computer-implemented method of delivering webinars with certified participation comprising the following steps: A. supplying a webinar to a participating user through a screen of a user data processing device (110; 120; 130); B. performing a biometric facial recognition of the participating user through a plurality of images acquired by a camera with which the user data processing device (110; 120; 130) is provided, wherein said images automatically acquired by the camera in a corresponding plurality of different instants during delivery of the webinar are compared with one or more stored sample images of an expected participating user, identified on the basis of user credentials, which have been automatically acquired before the delivery of the webinar, wherein comparison between images is made through eigenfunctional classifiers extracting salient facial features; C. monitoring a participation of the participating user in the webinar; and D. storing data relating to the biometric facial recognition of the participating user and data relating to the participation of the participating user in the webinar in a blockchain. A. supplying a webinar to a participating user through a screen of a user data processing device (110; 120; 130); B. performing a biometric facial recognition of the participating user through a plurality of images acquired by a camera with which the user data processing device (110; 120; 130) is provided, wherein said images automatically acquired by the camera in a corresponding plurality of different instants during delivery of the webinar are compared with one or more stored sample images of an expected participating user, identified on the basis of user credentials, which have been automatically acquired before the delivery of the webinar, wherein comparison between images is made through eigenfunctional classifiers extracting salient facial features; C. monitoring a participation of the participating user in the webinar; and D. storing data relating to the biometric facial recognition of the participating user and data relating to the participation of the participating user in the webinar in a blockchain.
A high-speed skatemill with a movable skatemill belt, wherein the movable skatemill belt is tensioned between two rotating support drums, that are mounted on a common support frame in rolling bearings, wherein at least one of the support drums is connected to a driving unit and the movable skatemill belt is mounted slidably with its inner upper side on a stationary rigid sliding pad or on a multitude of stationary rigid sliding pads, characterized in that the said stationary rigid sliding pad or at least one of the multitude of stationary rigid sliding pads do comprise at least one gas or gas mixture outlet opening arranged as at least one injection opening and/or at least one slit , directed towards the inner side of the movable skatemill belt and the at least one injection opening and/or the at least one slit in the stationary rigid sliding pad or in the at least one of the multitude of stationary rigid sliding pads is connected directly or through a distribution channel to at least one gas or gas mixture inlet opening , and/or the said skatemill comprises at least one applicator with an anti-friction medium outlet directed towards the inner side of the movable skatemill belt .