mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a base station of a first of a plurality of non-coordinated radio access networks, RANs, in a wireless communication network of facilitating, for a base station of a second of the plurality of non-coordinated RANs, connection of at least one wireless communication device served by the base station of the first RAN, the method being characterized in comprising: determining (S101) that information indicating frequencies associated with an identifier of a network which said at least one wireless communication device is allowed to access should be transmitted to a mobility management node serving the identified network, the indicated frequencies being available in the first RAN for accessing the identified network; and transmitting (S102) the information indicating frequencies available in the first RAN for accessing said identified network to the mobility management node serving the identified network for forwarding to the base station of the second RAN, said network being operated by an operator different from those operating the first and second non-coordinated RANs. determining (S101) that information indicating frequencies associated with an identifier of a network which said at least one wireless communication device is allowed to access should be transmitted to a mobility management node serving the identified network, the indicated frequencies being available in the first RAN for accessing the identified network; and transmitting (S102) the information indicating frequencies available in the first RAN for accessing said identified network to the mobility management node serving the identified network for forwarding to the base station of the second RAN, said network being operated by an operator different from those operating the first and second non-coordinated RANs.
An LED light module comprising: an electrical device; and an LED light unit driven by the electrical device, the electrical device comprising: a transformer with a ferrite core ; a driver circuit comprising: the transformer ; a switch mode power supply, wherein the transformer is adapted to be used as an energy commutation component of the switch mode power supply; and an LED driver; and an RF antenna , wherein said RF antenna is electrically isolated from said transformer , and a geometric dimension of the RF antenna along a surface of the RF antenna has a maximum dimension (m), and the RF antenna is spatially spaced from a nearest part of the ferrite core by less than the maximum dimension (m). an electrical device; and an LED light unit driven by the electrical device, the electrical device comprising: a transformer with a ferrite core ; a driver circuit comprising: the transformer ; a switch mode power supply, wherein the transformer is adapted to be used as an energy commutation component of the switch mode power supply; and an LED driver; and an RF antenna , wherein said RF antenna is electrically isolated from said transformer , and a geometric dimension of the RF antenna along a surface of the RF antenna has a maximum dimension (m), and the RF antenna is spatially spaced from a nearest part of the ferrite core by less than the maximum dimension (m). a transformer with a ferrite core ; a driver circuit comprising: the transformer ; a switch mode power supply, wherein the transformer is adapted to be used as an energy commutation component of the switch mode power supply; and an LED driver; and the transformer ; a switch mode power supply, wherein the transformer is adapted to be used as an energy commutation component of the switch mode power supply; and an LED driver; and an RF antenna , wherein said RF antenna is electrically isolated from said transformer , and a geometric dimension of the RF antenna along a surface of the RF antenna has a maximum dimension (m), and the RF antenna is spatially spaced from a nearest part of the ferrite core by less than the maximum dimension (m).
A radio-controlled seed planter comprising: a radio-controlled (RC) truck including a remote control module to cause the RC truck to be controlled remotely by a radio control unit (C); and a seeding unit coupled and installed in the RC truck to perform seeding work wherein the RC truck comprises: a main frame ; a subframe ; an engine installed on the main frame ; a battery installed on the subframe , the battery being charged by the power of the engine ; and driving units disposed on front and rear sides on both sides of the subframe , respectively, to drive wheels with electric power of the battery so as to produce driving power; characterized in that the subframe is formed to be spaced apart from the main frame ; and the RC truck further comprises damper units installed between the main frame and the subframe to dampen impact, wherein each of the damper units comprises: a damping rod protruding vertically upward from a top surface of the main frame and having an engagement ledge formed on a top end thereof; a guide bushing provided to the subframe in such a manner that the damping rod penetrates through the guide bushing ; and a spring mounted between the engagement ledge formed on the top end of the damping rod and an upper end of the guide bushing to support the load to be applied to the main frame and to dampen vibration of the main frame when the RC truck travels. a radio-controlled (RC) truck including a remote control module to cause the RC truck to be controlled remotely by a radio control unit (C); and a seeding unit coupled and installed in the RC truck to perform seeding work wherein the RC truck comprises: a main frame ; a subframe ; an engine installed on the main frame ; a battery installed on the subframe , the battery being charged by the power of the engine ; and driving units disposed on front and rear sides on both sides of the subframe , respectively, to drive wheels with electric power of the battery so as to produce driving power; a main frame ; a subframe ; an engine installed on the main frame ; a battery installed on the subframe , the battery being charged by the power of the engine ; and driving units disposed on front and rear sides on both sides of the subframe , respectively, to drive wheels with electric power of the battery so as to produce driving power; a damping rod protruding vertically upward from a top surface of the main frame and having an engagement ledge formed on a top end thereof; a guide bushing provided to the subframe in such a manner that the damping rod penetrates through the guide bushing ; and a spring mounted between the engagement ledge formed on the top end of the damping rod and an upper end of the guide bushing to support the load to be applied to the main frame and to dampen vibration of the main frame when the RC truck travels.
Method for anonymizing a user identity and/or user data of a subscriber of a data protection service , wherein a first third party service and a second third party service are accessed by a computing device of the subscriber via the telecommunications network , the computing device being connected to the telecommunications network , wherein in case that the first third party service requests the transmission of user related data from the data protection service , the data protection service transmits user related data being data related to the user identity and/or user data, wherein the user identity and/or the user data are at least partly anonymized with respect to the first third party service according to a first set of access rules, wherein in case that the second third party service requests the transmission of user related data from the data protection service , the data protection service transmits user related data being data related to the user identity and/or user data, wherein the user identity and/or the user data are at least partly anonymized with respect to the second third party service according to a second set of access rules, wherein the assignment of the first third party service and/or the second third party service to the first set of access rules and/or the second set of access rules is changed via the telecommunications network , by means of the computing device of the subscriber of the data protection service , wherein the first third party service is an application provided to the computing device together with the first set of access rules as a predefined set of access rules in a trusted marketplace, and the second third party service is an application provided to the computing device together with the second set of access rules as a predefined set of access rules in a trusted marketplace, wherein according to the first set of access rules a fake piece of data is transmitted as part of the user related data to the first third party service , wherein the fake piece of data is generated randomly or pseudo-randomly.
A watersports boot for a user's foot, comprising a sole portion enclosing the sole, sides of the user's foot and tops of the toes and manufactured from a molded foam; an ankle portion enclosing the user's ankle and lower leg and manufactured from a high-stretch neoprene, a lining fabric provided within the interior of the ankle portion , wherein the ankle portion is attached to the sole portion at a seam using waterproof glue; wherein a thin lip runs around the entire bonding surface of the molded foam to accept the neoprene, wherein at seam the neoprene is cut at an angle so that there is a glue-able surface area that includes both the neoprene and the lining fabric , and wherein an external seam sealant is applied to the external seam between the sole portion and the ankle portion to provide additional waterproofing and seam strength, wherein the external seam sealant is a silicone or polyurethane based sealant that is applied in viscous form and cured at room temperature. a lining fabric provided within the interior of the ankle portion , wherein the ankle portion is attached to the sole portion at a seam using waterproof glue; wherein a thin lip runs around the entire bonding surface of the molded foam to accept the neoprene, wherein at seam the neoprene is cut at an angle so that there is a glue-able surface area that includes both the neoprene and the lining fabric , and wherein an external seam sealant is applied to the external seam between the sole portion and the ankle portion to provide additional waterproofing and seam strength, wherein the external seam sealant is a silicone or polyurethane based sealant that is applied in viscous form and cured at room temperature.
A method for multiplexing transmission of information, applicable to User Equipment, UE, the method comprising: selecting (S101) a Physical Uplink Shared Channel, PUSCH, for multiplexing transmission of Uplink Control Information, UCI, carried in a Physical Uplink Control Channel, PUCCH, based on a selection criterion when the PUCCH and a plurality of PUSCHs are within a slot and have an overlapping portion in time-domain; and performing (S102) multiplexing transmission by multiplexing the UCI and transmission content of the selected PUSCH in the selected PUSCH, characterized in that the method comprising: wherein the step of selecting the PUSCH for the multiplexing transmission of the UCI carried in the PUCCH based on the selection criterion comprises: determining the selection criterion according to a type of the UCI and pre-stored corresponding relationships between types of UCI and different selection criteria; and selecting a PUSCH as the PUSCH for the multiplexing transmission of the UCI according to the determined selection criterion. selecting (S101) a Physical Uplink Shared Channel, PUSCH, for multiplexing transmission of Uplink Control Information, UCI, carried in a Physical Uplink Control Channel, PUCCH, based on a selection criterion when the PUCCH and a plurality of PUSCHs are within a slot and have an overlapping portion in time-domain; and performing (S102) multiplexing transmission by multiplexing the UCI and transmission content of the selected PUSCH in the selected PUSCH, characterized in that the method comprising: wherein the step of selecting the PUSCH for the multiplexing transmission of the UCI carried in the PUCCH based on the selection criterion comprises: determining the selection criterion according to a type of the UCI and pre-stored corresponding relationships between types of UCI and different selection criteria; and selecting a PUSCH as the PUSCH for the multiplexing transmission of the UCI according to the determined selection criterion. determining the selection criterion according to a type of the UCI and pre-stored corresponding relationships between types of UCI and different selection criteria; and selecting a PUSCH as the PUSCH for the multiplexing transmission of the UCI according to the determined selection criterion.
An ear shape analysis method implemented by a computer , the method comprising: generating a first ear shape data set (v (n) ) by applying a first principal component weight vector (w (n) ) to an ear shape model (E) reflecting statistical tendencies of three-dimensional shapes of ears; and identifying from the generated first ear shape data set (v (n) ) an estimated three-dimensional shape of a target ear corresponding to a target ear image (G U ) represented by image data (D G ), wherein the ear shape model (E) indicates a relation between second ear shape data sets and second principal component weight vectors, each second ear shape data set indicating a difference between a point group (P S(n) ) representing a three-dimensional shape of an ear and a point group (P R ) representing a three-dimensional shape of a reference ear, and each second principal component weight vector indicating weights of principal components of the corresponding second ear shape data set. generating a first ear shape data set (v (n) ) by applying a first principal component weight vector (w (n) ) to an ear shape model (E) reflecting statistical tendencies of three-dimensional shapes of ears; and identifying from the generated first ear shape data set (v (n) ) an estimated three-dimensional shape of a target ear corresponding to a target ear image (G U ) represented by image data (D G ), wherein the ear shape model (E) indicates a relation between second ear shape data sets and second principal component weight vectors, each second ear shape data set indicating a difference between a point group (P S(n) ) representing a three-dimensional shape of an ear and a point group (P R ) representing a three-dimensional shape of a reference ear, and each second principal component weight vector indicating weights of principal components of the corresponding second ear shape data set.
A method for detecting a stenosis located at a first position in a blood line of a circuit for extracorporeal blood treatment, the first position being between a blood pump and a treatment device , the method comprising steps of: • acquiring at least one first pressure value from a first sensor mounted at a first point of the circuit for extracorporeal blood treatment comprising the blood line in which the blood is subjected to a pulsating thrust; • acquiring at least one second pressure value from a second sensor mounted at a second point, distinct from the first point of the blood line of the circuit for extracorporeal blood treatment, and • relating at least one first value, related to corresponding pulsating signal amplitudes of the first pressure value, and at least one second value, related to corresponding pulsating signal amplitudes of the second pressure value, with at least a threshold value, in order to obtain a datum representing a state of the blood line , the pulsating signal amplitudes being calculated by detecting the pressure values from the first and second sensor at corresponding predetermined time intervals, wherein relating comprises performing at least a ratio between the first value and the second value, and comparing a result of the ratio with a threshold value in order to obtain the datum representing a state of the blood line . • acquiring at least one first pressure value from a first sensor mounted at a first point of the circuit for extracorporeal blood treatment comprising the blood line in which the blood is subjected to a pulsating thrust; • acquiring at least one second pressure value from a second sensor mounted at a second point, distinct from the first point of the blood line of the circuit for extracorporeal blood treatment, and • relating at least one first value, related to corresponding pulsating signal amplitudes of the first pressure value, and at least one second value, related to corresponding pulsating signal amplitudes of the second pressure value, with at least a threshold value, in order to obtain a datum representing a state of the blood line , the pulsating signal amplitudes being calculated by detecting the pressure values from the first and second sensor at corresponding predetermined time intervals, wherein relating comprises performing at least a ratio between the first value and the second value, and comparing a result of the ratio with a threshold value in order to obtain the datum representing a state of the blood line .
A shaping apparatus for the shaping of plastics material preforms into plastics material containers with a plurality of blow moulding stations and with at least one control device (55; 55A; 55B; 55C) for the control of blow moulding pressures and/or volume flows at the blow moulding stations , in which the at least one control device (55; 55A; 55B; 55C) comprises at least one control valve with a control piston part which is guided in a cylinder part and by means of which a cross-section of a blow moulding air duct is capable of being closed, characterized in that the control device (55; 55A; 55B; 55C) has a drive unit (61; 77) operating in an electromagnetic manner in order to effect a change in position of the control piston part inside the cylinder part and thus also to control the blow moulding pressures and/or volume flows at the blow moulding stations , wherein the control piston part comprises a pressure equalization chamber in order to reduce driving forces of the control piston part .
A cobalt catalyst, comprising a carrier and a catalytically active substance; wherein the carrier is a cobalt-based substrate material, the cobalt-based substrate material is at least one selected from the group consisting of a cobalt foam, a cobalt sheet, a cobalt foil, and a cobalt wire; the catalytically active substance is grown on a surface of the carrier; characterized in that the catalytically active substance is cobalt oxyhydroxide, a morphology of the catalytically active substance is hydrangea-like nanospheres, a surface of each of the hydrangea-like nanospheres is a three-dimensional structure assembled by nano-sheets. the carrier is a cobalt-based substrate material, the cobalt-based substrate material is at least one selected from the group consisting of a cobalt foam, a cobalt sheet, a cobalt foil, and a cobalt wire; the catalytically active substance is grown on a surface of the carrier; characterized in that the catalytically active substance is cobalt oxyhydroxide, a morphology of the catalytically active substance is hydrangea-like nanospheres, a surface of each of the hydrangea-like nanospheres is a three-dimensional structure assembled by nano-sheets.
A method (1300; 1400; 1500) for a scheduling entity to communicate with a set of one or more scheduled entities in a wireless communication network, the method comprising: selecting (1302; 1402) a hopping pattern from a plurality of hopping patterns for a scheduled entity of the set of one or more scheduled entities to utilize for transmission of an uplink packet, wherein each of the plurality of hopping patterns comprises a respective sequence of different transmission parameters, wherein each of the different transmission parameters in the sequence of different transmission parameters is mapped to a respective time resource within a consecutive sequence of time resources; transmitting (1304; 1404; 1504) an indication of the hopping pattern to the scheduled entity; and receiving (1306; 1408; 1506) an initial transmission and one or more retransmissions of the uplink packet from the scheduled entity based on the hopping pattern; wherein the uplink packet comprises a scheduling request. selecting (1302; 1402) a hopping pattern from a plurality of hopping patterns for a scheduled entity of the set of one or more scheduled entities to utilize for transmission of an uplink packet, wherein each of the plurality of hopping patterns comprises a respective sequence of different transmission parameters, wherein each of the different transmission parameters in the sequence of different transmission parameters is mapped to a respective time resource within a consecutive sequence of time resources; transmitting (1304; 1404; 1504) an indication of the hopping pattern to the scheduled entity; and receiving (1306; 1408; 1506) an initial transmission and one or more retransmissions of the uplink packet from the scheduled entity based on the hopping pattern; wherein the uplink packet comprises a scheduling request.
A method for producing 1,4-butanediol, comprising biologically producing 1,4-butanediol in a culture medium for fermentation of an organism capable of producing 1,4-butanediol, at least partially removing each of a bacterial cell, a salt content and water from said fermentation culture medium to obtain a refined raw material 1,4-butanediol-containing solution, obtaining therefrom a crude 1,4-butanediol-containing solution through any one or more steps of the following steps (a) to (c), refining said crude 1,4-butanediol-containing solution through the following step (d) to obtain refined 1,4-butanediol: Step (a): a step of distilling said refined raw material 1 ,4 − butanediol − containing solution in a distillation column to remove components which are contained in said refined raw material 1 ,4 − butanediol − containing solution and higher in the boiling point than 1 ,4 − butanediol; Step (b): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and lighter in the boiling point than 1,4-butanediol; Step (c): a hydrogenation step of at least partially hydrogenating carbonyl compounds or unsaturated compounds contained in said refined raw material 1,4-butanediol-containing solution, wherein the hydrogenation is performed using a solid catalyst containing at least one metal or two or more metals selected from nickel (Ni), palladium (Pd), ruthenium (Ru), platinum (Pt) and copper (Cu); and Step (d): a step of distilling said crude 1,4-butanediol-containing solution in a distillation column and withdrawing refined 1,4-butanediol from a side stream. Step (a): a step of distilling said refined raw material 1 ,4 − butanediol − containing solution in a distillation column to remove components which are contained in said refined raw material 1 ,4 − butanediol − containing solution and higher in the boiling point than 1 ,4 − butanediol; Step (b): a step of distilling said refined raw material 1,4-butanediol-containing solution in a distillation column to remove components which are contained in said refined raw material 1,4-butanediol-containing solution and lighter in the boiling point than 1,4-butanediol; Step (c): a hydrogenation step of at least partially hydrogenating carbonyl compounds or unsaturated compounds contained in said refined raw material 1,4-butanediol-containing solution, wherein the hydrogenation is performed using a solid catalyst containing at least one metal or two or more metals selected from nickel (Ni), palladium (Pd), ruthenium (Ru), platinum (Pt) and copper (Cu); and Step (d): a step of distilling said crude 1,4-butanediol-containing solution in a distillation column and withdrawing refined 1,4-butanediol from a side stream.