mhurhangee/patent-ind-claim-en huggingface dataset:
Method for making an associative connection between an electric vehicle (EV) and a charging station (EVSE), comprising the following steps: - setting up the associative connection between the electric vehicle (EV) and the charging station (EVSE) by forming a directional radio link; - checking the associative connection between the electric vehicle (EV) and the charging station (EVSE) with the collaboration of at least one first transmitter (TR1) that prompts the directional radio link with an omnidirectional transmitter (TR2), wherein the associative connection is checked by comparing a transmission strength of the directional radio link with a transmission strength transmitted via the omnidirectional transmitter (TR2) and wherein a negative result of the check is output if the transmission strength transmitted via the omnidirectional transmitter (TR2) exceeds the transmission strength of the directional radio link. - setting up the associative connection between the electric vehicle (EV) and the charging station (EVSE) by forming a directional radio link; - checking the associative connection between the electric vehicle (EV) and the charging station (EVSE) with the collaboration of at least one first transmitter (TR1) that prompts the directional radio link with an omnidirectional transmitter (TR2),
An integrated circuit , comprising: an analog-to-digital converter operated according to a first clock signal , the first clock signal having a first frequency, the analog-to-digital converter being a sigma-delta analog-to-digital converter, a digital filter of the analog-to-digital converter having a frequency rejection band and the analog-to digital converter producing a digital output signal based on an analog input signal; and a charge pump circuit providing a negative power supply voltage to the integrated circuit , the charge pump circuit being operated according to a second clock signal having a second frequency that is different from the first frequency of the first clock signal , wherein the second frequency, for operating the charge pump circuit , is selected to be within the frequency rejection band of the analog-to-digital converter's digital filter and within rejection nulls of the analog-to-digital converter's digital filter, such that a noise effect on the digital output signal of noise introduced by the charge pump circuit is attenuated by the frequency rejection of the analog-to-digital converter ; wherein the integrated circuit further comprises a frequency divider circuit that receives a master clock signal and that, based on the master clock signal, generates both the first clock signal and the second clock signal ; and wherein the ratio of the master clock signal frequency to the frequency of the second clock signal is a prime number. an analog-to-digital converter operated according to a first clock signal , the first clock signal having a first frequency, the analog-to-digital converter being a sigma-delta analog-to-digital converter, a digital filter of the analog-to-digital converter having a frequency rejection band and the analog-to digital converter producing a digital output signal based on an analog input signal; and a charge pump circuit providing a negative power supply voltage to the integrated circuit , the charge pump circuit being operated according to a second clock signal having a second frequency that is different from the first frequency of the first clock signal , wherein the second frequency, for operating the charge pump circuit , is selected to be within the frequency rejection band of the analog-to-digital converter's digital filter and within rejection nulls of the analog-to-digital converter's digital filter, such that a noise effect on the digital output signal of noise introduced by the charge pump circuit is attenuated by the frequency rejection of the analog-to-digital converter ; wherein the integrated circuit further comprises a frequency divider circuit that receives a master clock signal and that, based on the master clock signal, generates both the first clock signal and the second clock signal ; and wherein the ratio of the master clock signal frequency to the frequency of the second clock signal is a prime number.
A method for electrochemical surface treatment of biomedical product made of titanium or Ti-based alloys wherein it comprises steps: - Immersion of the degreased and cleaned biomedical product into the electrolyte consisting from mixture of 95 to 60 vol. % of Ethaline and 5 to 40 vol. % of ethyl alcohol, respectively; - Galvanostatic etching treatment of the biomedical product at the current density 2 to 20 mA cm -2 for 2 to 60 min. at a temperature 5 to 40 °C or potentiostatic etching treatment of the biomedical product at the potential 1 to 4 V for 2 to 60 min. at a temperature 5 to 40 °C; or galvanostatic electropolishing of the biomedical product at the current density 25 to 100 mA cm -2 for 2 to 60 min. at a temperature 5 to 40 °C or potentiostatic electropolishing of the biomedical product at the potential 5 to 30 V for 2 to 60 min. at a temperature 5 to 40 °C; - Subsequent cleaning of the biomedical product from electrolytes residuals. - Immersion of the degreased and cleaned biomedical product into the electrolyte consisting from mixture of 95 to 60 vol. % of Ethaline and 5 to 40 vol. % of ethyl alcohol, respectively; - Galvanostatic etching treatment of the biomedical product at the current density 2 to 20 mA cm -2 for 2 to 60 min. at a temperature 5 to 40 °C or potentiostatic etching treatment of the biomedical product at the potential 1 to 4 V for 2 to 60 min. at a temperature 5 to 40 °C; or galvanostatic electropolishing of the biomedical product at the current density 25 to 100 mA cm -2 for 2 to 60 min. at a temperature 5 to 40 °C or potentiostatic electropolishing of the biomedical product at the potential 5 to 30 V for 2 to 60 min. at a temperature 5 to 40 °C; - Subsequent cleaning of the biomedical product from electrolytes residuals.
A user equipment, UE , comprising: a plurality of antenna modules; and a sensor positioned proximate to an antenna module in the plurality of antenna modules, the sensor configured to detect an obstacle proximate to the sensor ; and a processor configured to: receive an input from the sensor indicating a presence of the obstacle proximate to the sensor ; identify the antenna module proximate to the sensor ; identify, based on the input from the sensor and a position of the sensor relative to the antenna module, a position of the obstacle relative to the antenna module; identify beam patterns for beams of the antenna module; determine, based on the beam patterns and the position of the obstacle relative to the antenna module, one or more of the beams that are obstructed by the obstacle; and deactivate use of the one or more beams that are determined to be obstructed by the obstacle. a plurality of antenna modules; and a sensor positioned proximate to an antenna module in the plurality of antenna modules, the sensor configured to detect an obstacle proximate to the sensor ; and a processor configured to: receive an input from the sensor indicating a presence of the obstacle proximate to the sensor ; identify the antenna module proximate to the sensor ; identify, based on the input from the sensor and a position of the sensor relative to the antenna module, a position of the obstacle relative to the antenna module; identify beam patterns for beams of the antenna module; determine, based on the beam patterns and the position of the obstacle relative to the antenna module, one or more of the beams that are obstructed by the obstacle; and deactivate use of the one or more beams that are determined to be obstructed by the obstacle. receive an input from the sensor indicating a presence of the obstacle proximate to the sensor ; identify the antenna module proximate to the sensor ; identify, based on the input from the sensor and a position of the sensor relative to the antenna module, a position of the obstacle relative to the antenna module; identify beam patterns for beams of the antenna module; determine, based on the beam patterns and the position of the obstacle relative to the antenna module, one or more of the beams that are obstructed by the obstacle; and identify the antenna module proximate to the sensor ; identify, based on the input from the sensor and a position of the sensor relative to the antenna module, a position of the obstacle relative to the antenna module; identify beam patterns for beams of the antenna module; determine, based on the beam patterns and the position of the obstacle relative to the antenna module, one or more of the beams that are obstructed by the obstacle; and deactivate use of the one or more beams that are determined to be obstructed by the obstacle.
A friction material comprising: a friction modifier; a binder; and a fibrous material, wherein an alkali metal salt of phosphoric acid and a metal sulfide are contained as the friction modifier, characterized in that a steel fiber is contained as the fibrous material in a content of 20 mass% to 50 mass% and characterized in that the binder is selected among phenol resins, elastomer-modified phenol resins, a melamine resin, an epoxy resin and a polyimide resin. a friction modifier; a binder; and a fibrous material, wherein an alkali metal salt of phosphoric acid and a metal sulfide are contained as the friction modifier, characterized in that a steel fiber is contained as the fibrous material in a content of 20 mass% to 50 mass% and characterized in that the binder is selected among phenol resins, elastomer-modified phenol resins, a melamine resin, an epoxy resin and a polyimide resin.
A method of detecting a fault condition in one or more balers , each of which includes a crop feed system and a bale chamber , wherein each of the one or more balers is configured to bale cut crop, the method comprising: identifying at least one location in the one or more balers , wherein the at least one identified location generates heat during an operation of a component of the baler ; placing a radio frequency identification (RFID) tag at the at least one identified location, wherein the RFID tag includes a temperature sensing feature; receiving transmitted data from the RFID tag ; identifying, from the received data, a temperature value of the at least one identified location; and providing an indicator based on the identified temperature value. identifying at least one location in the one or more balers , wherein the at least one identified location generates heat during an operation of a component of the baler ; placing a radio frequency identification (RFID) tag at the at least one identified location, wherein the RFID tag includes a temperature sensing feature; receiving transmitted data from the RFID tag ; identifying, from the received data, a temperature value of the at least one identified location; and providing an indicator based on the identified temperature value.
A circuit breaker insulation arrangement comprising at least one insulating support assembly (12; 22; 32) and two components (1; 2) of a circuit breaker , the insulating support assembly (12; 22; 32) being configured to provide mechanical support and electrical insulation between the two components (1; 2) of the circuit breaker , the insulating support assembly comprising a strut (120; 122; 132) and two metallic shields , the strut comprising: - an elongated main body made of a vacuum casted epoxy resin having two ends; and - two metallic inserts , each insert being partially embedded in its respective end of the main body; the assembly being characterized in that the main body is continuously curved with a curvature extending from one end to the other end of the main body, each end of the main body being configured to face a radial direction of the component on which it is to be fixed, and the main body being configured to be in a same plane as a plane containing both radial directions of the components; and in that each metallic shield is configured to be assembled to its respective end of the main body through its respective metallic insert and affixed to an outer surface of its respective component (1; 2) of the circuit breaker by means of fixing elements, each metallic shield having a C-shaped or substantially C-shaped profile shaped to accommodate the outer surface of its respective component. - an elongated main body made of a vacuum casted epoxy resin having two ends; and - two metallic inserts , each insert being partially embedded in its respective end of the main body; the assembly being characterized in that the main body is continuously curved with a curvature extending from one end to the other end of the main body, each end of the main body being configured to face a radial direction of the component on which it is to be fixed, and the main body being configured to be in a same plane as a plane containing both radial directions of the components; and in that each metallic shield is configured to be assembled to its respective end of the main body through its respective metallic insert and affixed to an outer surface of its respective component (1; 2) of the circuit breaker by means of fixing elements, each metallic shield having a C-shaped or substantially C-shaped profile shaped to accommodate the outer surface of its respective component.
A headgear assembly , comprising: a headgear body comprising one or more integrally-formed, inelastic strap structures, the headgear body comprising a top strap of a fixed length, a rear strap of a fixed length, and a front strap ; at least one interchangeable spacer element positioned within at least one of the top strap , the rear strap and the front strap , wherein the at least one interchangeable spacer element is provided or made available in a plurality of sizes such that the selection and assembly of one of the interchangeable spacer elements into the headgear body determines a size of the headgear assembly . a headgear body comprising one or more integrally-formed, inelastic strap structures, the headgear body comprising a top strap of a fixed length, a rear strap of a fixed length, and a front strap ; at least one interchangeable spacer element positioned within at least one of the top strap , the rear strap and the front strap , wherein the at least one interchangeable spacer element is provided or made available in a plurality of sizes such that the selection and assembly of one of the interchangeable spacer elements into the headgear body determines a size of the headgear assembly .
Milking installation for animals , comprising: - a plurality of posts (102a-c) planted vertically in the floor and in which between two adjacent posts (102a-c) there is arranged a plurality of containment stalls , each one having an axis aligned with the longitudinal axis of the animal when it is in the containment stall , - for each post (102a-c) a slider (104a-c) mounted with the ability to move in vertical translation along the post (102a-c) between a low position and a high position, and a first drive means (106a-b) designed to move the slider (104a-c), - for each slider (104a-c), a tilting arm (108a-b) mounted with the ability to rotate on the slider (104a-c) between a lowered position and a raised position, and a second drive means (110a-b) designed to move the tilting arm (108a-b), - for each pair of adjacent tilting arms (108a-b), a beam (112a-b) fixed to the two tilting arms (108a-b), - beneath each beam (112a-b) a plurality of girders fixed and suspended beneath the beam (112a-b), - for each girder , a lateral guide borne by the girder and positioned between two adjacent animals in order to separate their heads, and - a control unit intended to control each drive means (106a-b, 110a-b). - a plurality of posts (102a-c) planted vertically in the floor and in which between two adjacent posts (102a-c) there is arranged a plurality of containment stalls , each one having an axis aligned with the longitudinal axis of the animal when it is in the containment stall , - for each post (102a-c) a slider (104a-c) mounted with the ability to move in vertical translation along the post (102a-c) between a low position and a high position, and a first drive means (106a-b) designed to move the slider (104a-c), - for each slider (104a-c), a tilting arm (108a-b) mounted with the ability to rotate on the slider (104a-c) between a lowered position and a raised position, and a second drive means (110a-b) designed to move the tilting arm (108a-b), - for each pair of adjacent tilting arms (108a-b), a beam (112a-b) fixed to the two tilting arms (108a-b), - beneath each beam (112a-b) a plurality of girders fixed and suspended beneath the beam (112a-b), - for each girder , a lateral guide borne by the girder and positioned between two adjacent animals in order to separate their heads, and - a control unit intended to control each drive means (106a-b, 110a-b).
A method performed by an access network entity in a wireless communication system, the method comprising: receiving , from a terminal in the wireless communication system, a message including first information for identifying an access and mobility management function, AMF, the first information including an AMF set identifier and an AMF identifier; selecting an AMF set based on the AMF set identifier; selecting an AMF from the selected AMF set; and transmitting , to the terminal , second information for identifying the selected AMF and the terminal , wherein the AMF set comprises a plurality of AMFs and each AMF in the set supports the same network slice, and wherein the AMF set identifier is an identifier of the AMF set, and the AMF identifier is an identifier of an AMF within the AMF set. receiving , from a terminal in the wireless communication system, a message including first information for identifying an access and mobility management function, AMF, the first information including an AMF set identifier and an AMF identifier; selecting an AMF set based on the AMF set identifier; selecting an AMF from the selected AMF set; and transmitting , to the terminal , second information for identifying the selected AMF and the terminal , wherein the AMF set comprises a plurality of AMFs and each AMF in the set supports the same network slice, and wherein the AMF set identifier is an identifier of the AMF set, and the AMF identifier is an identifier of an AMF within the AMF set.
A distributed mode actuator , comprising: a plate adapted to create a force to cause vibration of a load extending in a plane to generate sound waves, the plate having a width, W T , along a first direction at a first edge of the plate and a length, L T , along a second direction orthogonal to the first direction, the first and second directions being parallel to the plane, the plate extending along the second direction from a first end to a second end; a stub extending from the first edge of the plate, the stub having a width, W S , in the first direction at a region of connection to the plate at the first end of the plate that is less than W T , the stub being attachable to the load to transfer the force received from the plate through to the load and cause the load to vibrate; and a damper supported by a surface of the plate facing the load when the stub is attached to the load, the damper being configured to couple the plate to the load, the damper having a width, W D , extending in the first direction by an amount greater than W S . a plate adapted to create a force to cause vibration of a load extending in a plane to generate sound waves, the plate having a width, W T , along a first direction at a first edge of the plate and a length, L T , along a second direction orthogonal to the first direction, the first and second directions being parallel to the plane, the plate extending along the second direction from a first end to a second end; a stub extending from the first edge of the plate, the stub having a width, W S , in the first direction at a region of connection to the plate at the first end of the plate that is less than W T , the stub being attachable to the load to transfer the force received from the plate through to the load and cause the load to vibrate; and a damper supported by a surface of the plate facing the load when the stub is attached to the load, the damper being configured to couple the plate to the load, the damper having a width, W D , extending in the first direction by an amount greater than W S .
A dispersion paint for inside and outside use, containing a) 2 - 30% polymeric dispersion calculated as solids content, b) 5 - 50% zinc sulphide as pigment, c) 15 - 50% filling material selected from the group consisting of calcium carbonate, talcum, kaolin, chalk and aluminosilicate, d) 0,5 - 5% siliconate and e) supplemented to 100% with water content, characterised in that it contains zinc sulphide without further pigments. a) 2 - 30% polymeric dispersion calculated as solids content, b) 5 - 50% zinc sulphide as pigment, c) 15 - 50% filling material selected from the group consisting of calcium carbonate, talcum, kaolin, chalk and aluminosilicate, d) 0,5 - 5% siliconate and e) supplemented to 100% with water content, characterised in that it contains zinc sulphide without further pigments.
A method for preserving cooking oil which comprises contacting the oil with oil-permeable cementious material in the form of either stand-alone blocks, pellets, granules, or balls and which has been hydraulically hardened from a paste comprising:- (a) > 50 wt% of (i) white ordinary Portland cement (OPC) clinker, (ii) white OPC or (iii) a mixture of white OPC clinker and white OPC, and (b) optionally further ingredients selected from silica, titania , lime, calcium sulphate, hydrated alumina, natural feldspars, diatomaceous earth, Na and Ca forms of natural and synthetic zeolites, clays, pillared clays, activated clays/earths, silicate minerals selected from calcium silicate, magnesium silicate, aluminium silicate, agalmatolite, amphiboles, attapulgite, granite porphyry, kaolinite, porphyry, rhyolite, talc and wollastonite, wherein the porosity of the cementious material is 30-55%, characterised in that the treatment of the cooking oil takes place in a location separate from the frying chamber and during a frying operation or between frying operations. (a) > 50 wt% of (i) white ordinary Portland cement (OPC) clinker, (ii) white OPC or (iii) a mixture of white OPC clinker and white OPC, and (b) optionally further ingredients selected from silica, titania , lime, calcium sulphate, hydrated alumina, natural feldspars, diatomaceous earth, Na and Ca forms of natural and synthetic zeolites, clays, pillared clays, activated clays/earths, silicate minerals selected from calcium silicate, magnesium silicate, aluminium silicate, agalmatolite, amphiboles, attapulgite, granite porphyry, kaolinite, porphyry, rhyolite, talc and wollastonite, wherein the porosity of the cementious material is 30-55%, characterised in that the treatment of the cooking oil takes place in a location separate from the frying chamber and during a frying operation or between frying operations.