mhurhangee/patent-ind-claim-en huggingface dataset:
A map data correcting method for correcting map, data used in a vehicle using a controller , comprising: executing a first correction process (S112) of uniformly offsetting and rotating the map data as a whole to reduce a uniform error, the uniform error being a general position error of the map data; and characterized by executing a second correction process (S114) of reducing a distorted error in which a position error of the map data increases gradually from a reference point, the distorted error still remaining in the map data even after the first correction process (S112), the second correction process (S114) comprising: setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount. executing a first correction process (S112) of uniformly offsetting and rotating the map data as a whole to reduce a uniform error, the uniform error being a general position error of the map data; and characterized by executing a second correction process (S114) of reducing a distorted error in which a position error of the map data increases gradually from a reference point, the distorted error still remaining in the map data even after the first correction process (S112), the second correction process (S114) comprising: setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount. setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount.
Method for operating a centrifuge container for a laboratory centrifuge wherein the centrifuge container comprises a RFID-device and a storage unit is provided for storing at least one operational parameter, characterized in that a number of operating cycles which have been imposed on the centrifuge container is stored on the storage unit.
Device for separating feed material , preferably mixed material streams, in particular commercial waste, household waste, bulky waste, mixed construction waste, building rubble, biowaste, waste wood, rolled material and/or film material tending to coil, at least into an oversize fraction and an undersize fraction , with a separating deck having a plurality of spiral shafts arranged next to one another, Wherein the last spiral shaft of the separating deck in relation to the feed of the material onto the separating deck is assigned a guiding device for discharging the oversize fraction essentially in the longitudinal direction (L) of the last spiral shaft and for discharging the oversize fraction below the last spiral shaft and characterized in that the guiding device has a stop wall as a stop for the oversize fraction which adjoins the last spiral shaft in the feed direction (A) and runs along the last spiral shaft . Wherein the last spiral shaft of the separating deck in relation to the feed of the material onto the separating deck is assigned a guiding device for discharging the oversize fraction essentially in the longitudinal direction (L) of the last spiral shaft and for discharging the oversize fraction below the last spiral shaft and characterized in that the guiding device has a stop wall as a stop for the oversize fraction which adjoins the last spiral shaft in the feed direction (A) and runs along the last spiral shaft .
A method of anchoring an Internet Protocol Multimedia Subsystem, IMS, session of a subscriber, wherein the method comprises - receiving a packet switched request for a setup of the IMS session, and - anchoring the IMS session in a control node of a visited network of the subscriber, characterized in that the anchoring comprises a step of identifying the control node of the visited network wherein the identifying is based on at least one of using a configured Public Service Identifier (PSI) of the control node of the visited network and requesting information about the control node of the visited network from the home network. - receiving a packet switched request for a setup of the IMS session, and - anchoring the IMS session in a control node of a visited network of the subscriber,
A connector for providing electronic communication with an electronic device, the connector comprising: a substrate comprising patterned layers of non-conductive material and conductive material; an interface member mounted on the substrate and electrically connected with the conductive material; and a resettable thermal fuse embedded in the substrate and electrically connected with the conductive material and the interface member , wherein at least a portion of the resettable thermal fuse is disposed directly below the interface member , wherein the interface member includes one or more terminals configured to provide at least one or more of power and data communication between the electronic device and another electronic device, and characterized in that the interface member is configured to be removeably connected with the electronic device and to provide mechanical connection and electrical communication between the electronic device and the another electronic device. a substrate comprising patterned layers of non-conductive material and conductive material; an interface member mounted on the substrate and electrically connected with the conductive material; and a resettable thermal fuse embedded in the substrate and electrically connected with the conductive material and the interface member , wherein at least a portion of the resettable thermal fuse is disposed directly below the interface member , wherein the interface member includes one or more terminals configured to provide at least one or more of power and data communication between the electronic device and another electronic device, and characterized in that the interface member is configured to be removeably connected with the electronic device and to provide mechanical connection and electrical communication between the electronic device and the another electronic device.
A harmonic oscillator comprising: a dielectric body and a support base positioned at the bottom of the dielectric body; the dielectric body comprises a plurality of harmonic oscillator sheet layers with through holes and a connection part penetrated through the through holes of the harmonic oscillator sheet layers in turn and connected to the support base so as to fixedly connect the dielectric body and the support base integrally; each of the harmonic oscillator sheet layers comprises a substrate and a plurality of artificial microstructures attached to the substrate ; and at least one of the artificial microstructures is attached on the edge of a surface of the substrate ; wherein the artificial microstructures present positive equivalent refractive index in an electromagnetic field corresponding to a working frequency of the harmonic oscillator; and each artificial microstructure is a structure manufactured by conductive material and provided with geometric patterns; wherein the artificial microstructures attached on each substrate are not electrically connected with each other; and the equivalent refractive index and a size of the artificial microstructures on each substrate are increased along with the increase of a distance from the artificial microstructure to a center point on the surface of the substrate . a dielectric body and a support base positioned at the bottom of the dielectric body; the dielectric body comprises a plurality of harmonic oscillator sheet layers with through holes and a connection part penetrated through the through holes of the harmonic oscillator sheet layers in turn and connected to the support base so as to fixedly connect the dielectric body and the support base integrally; each of the harmonic oscillator sheet layers comprises a substrate and a plurality of artificial microstructures attached to the substrate ; and at least one of the artificial microstructures is attached on the edge of a surface of the substrate ; wherein the artificial microstructures present positive equivalent refractive index in an electromagnetic field corresponding to a working frequency of the harmonic oscillator; and each artificial microstructure is a structure manufactured by conductive material and provided with geometric patterns; wherein the artificial microstructures attached on each substrate are not electrically connected with each other; and the equivalent refractive index and a size of the artificial microstructures on each substrate are increased along with the increase of a distance from the artificial microstructure to a center point on the surface of the substrate .
A method at an identity mapping system , comprising: receiving a first byte stream from a client device ; determining that the first byte stream includes an authentication request; submitting the first byte stream to a distributed computing system that provides a plurality of services; receiving, from the distributed computing system, a second byte stream including a tag indicating that the authentication request will be handled in a trust mode where user credentials are not required for authentication; modifying the second byte stream into a third byte stream, including changing the tag to indicate that the user credentials are required; submitting the third byte stream to the client device; in response to the third byte stream, receiving user credentials from the client device in a fourth byte stream; intercepting the fourth byte stream; determining a user protocol in which the client device submitted the fourth byte stream; authenticating the fourth byte stream based on the user credentials; upon successfully authenticating the fourth byte stream, determining a service of the plurality of services that the fourth byte stream is authorized to access; determining service credentials associated with the service; generating a service request, including translating the user protocol of the fourth byte stream to a service protocol associated with the service at least in part by associating the service credentials with the service request; and submitting the service request to the distributed computing system. receiving a first byte stream from a client device ; determining that the first byte stream includes an authentication request; submitting the first byte stream to a distributed computing system that provides a plurality of services; receiving, from the distributed computing system, a second byte stream including a tag indicating that the authentication request will be handled in a trust mode where user credentials are not required for authentication; modifying the second byte stream into a third byte stream, including changing the tag to indicate that the user credentials are required; submitting the third byte stream to the client device; in response to the third byte stream, receiving user credentials from the client device in a fourth byte stream; intercepting the fourth byte stream; determining a user protocol in which the client device submitted the fourth byte stream; authenticating the fourth byte stream based on the user credentials; upon successfully authenticating the fourth byte stream, determining a service of the plurality of services that the fourth byte stream is authorized to access; determining service credentials associated with the service; generating a service request, including translating the user protocol of the fourth byte stream to a service protocol associated with the service at least in part by associating the service credentials with the service request; and submitting the service request to the distributed computing system.
A wound care device which - has a surface at least a portion of which is coated with a non-electrically conductive finish which exhibits antimicrobial properties; and - exhibits a controlled silver-ion release rate of < 50 μg/(cm 2 x 24h), determined by immersing a sample in a container holding 100ml of an aqueous sodium potassium phosphate extraction solution, which is used to simulate serum or wound exudate fluid, shaking it at room temperature for 24 hours and then analyzing the extract by inductively coupled plasma measurements for available silver removed from the surface of the sample; the wound care device being obtainable by treating a substrate with a composition comprising: - at least one compound delivering silver ions selected from silver zirconium phosphate, silver calcium phosphate, silver zeolite, silver glass, and any mixtures thereof, - at least one binder material selected from polyurethane, acrylic, and any mixtures thereof, and - a multi-valent halide-containing compound. - has a surface at least a portion of which is coated with a non-electrically conductive finish which exhibits antimicrobial properties; and - exhibits a controlled silver-ion release rate of < 50 μg/(cm 2 x 24h), determined by immersing a sample in a container holding 100ml of an aqueous sodium potassium phosphate extraction solution, which is used to simulate serum or wound exudate fluid, shaking it at room temperature for 24 hours and then analyzing the extract by inductively coupled plasma measurements for available silver removed from the surface of the sample; - at least one compound delivering silver ions selected from silver zirconium phosphate, silver calcium phosphate, silver zeolite, silver glass, and any mixtures thereof, - at least one binder material selected from polyurethane, acrylic, and any mixtures thereof, and - a multi-valent halide-containing compound.
A method of encoding data for optical data transmission along a transmission link, wherein the data is encoded based on an adaptive constellation diagram in a 2-D plane, said constellation diagram including a first and a second pair of symbols, - wherein the symbols of the first pair of symbols are located at opposite sides of an origin of the 2-D plane at a first distance d 1 from each other, and - wherein the symbols of the second pair of symbols are located at opposite sides of the origin of the 2-D plane at a second distance d2 from each other, wherein a line connecting the first pair of symbols and a line connecting the second pair of symbols are perpendicular to each other, wherein the method comprises a step of adapting the constellation diagram by varying the ratio of the first and second distances d 1 , d2 such as to minimize or nearly minimize a bit error rate in the transmitted data, wherein said transmission is subjected to additive noise and phase noise, wherein said additive noise is characterized by random isotropic shifts of constellation points in the 2-D plane, and said phase noise is characterized by a random rotation of constellation point locations with respect to the origin of said 2-D plane, and wherein the degree of variation of the ratio of the first and second distances d 1 , d2 is determined based on information representing or related to the amount of phase noise or to the ratio of the amount of phase noise with regard to the amount of additive noise. - wherein the symbols of the first pair of symbols are located at opposite sides of an origin of the 2-D plane at a first distance d 1 from each other, and - wherein the symbols of the second pair of symbols are located at opposite sides of the origin of the 2-D plane at a second distance d2 from each other, wherein a line connecting the first pair of symbols and a line connecting the second pair of symbols are perpendicular to each other, wherein the method comprises a step of adapting the constellation diagram by varying the ratio of the first and second distances d 1 , d2 such as to minimize or nearly minimize a bit error rate in the transmitted data, wherein said transmission is subjected to additive noise and phase noise, wherein said additive noise is characterized by random isotropic shifts of constellation points in the 2-D plane, and said phase noise is characterized by a random rotation of constellation point locations with respect to the origin of said 2-D plane, and wherein the degree of variation of the ratio of the first and second distances d 1 , d2 is determined based on information representing or related to the amount of phase noise or to the ratio of the amount of phase noise with regard to the amount of additive noise.
A composition comprising a combination of bupropion or a pharmaceutically acceptable salt thereof and an opioid antagonist for use in a method of treating a blood-glucose condition in a subject, said method comprising identifying a subject having a blood-glucose condition in need of treatment and administering to the subject an amount of said composition that is effective to modulate a blood-glucose level, wherein said subject suffers from at least one condition selected from diabetes, insulin resistance, hyperinsulinemia, impaired glucose metabolism, and hyperglycemia.
A system for detecting leakage around an occlusive implant disposed in the left atrial appendage, the system comprising: an occlusive implant configured to be disposed in a left atrial appendage ; an elongate shaft having a port disposed at a distal end region thereof; a first sensor disposed adjacent the elongate shaft ; and a core wire configured to be coupled to the occlusive implant ; wherein the elongate shaft is configured to be positioned adjacent the occlusive implant such that the first sensor is positioned on a first side of the occlusive implant , and wherein the port is positioned on a second side of the occlusive implant ; wherein the first sensor is configured to measure a first parameter; wherein the first parameter is utilized to determine a fluid leak between the occlusive implant and a tissue wall defining the left atrial appendage ; and wherein the first sensor is positioned along a portion of the core wire or along the elongate shaft . an occlusive implant configured to be disposed in a left atrial appendage ; an elongate shaft having a port disposed at a distal end region thereof; a first sensor disposed adjacent the elongate shaft ; and a core wire configured to be coupled to the occlusive implant ; wherein the elongate shaft is configured to be positioned adjacent the occlusive implant such that the first sensor is positioned on a first side of the occlusive implant , and wherein the port is positioned on a second side of the occlusive implant ; wherein the first sensor is configured to measure a first parameter; wherein the first parameter is utilized to determine a fluid leak between the occlusive implant and a tissue wall defining the left atrial appendage ; and wherein the first sensor is positioned along a portion of the core wire or along the elongate shaft .
Electrical assembly , in particular for a motor vehicle transmission, comprising: - a printed circuit board that has at least one component side , - at least two contact surfaces arranged on the component side , - at least two contact elements , which are respectively electrically connected, by a first end portion on the printed circuit board side, to one of the contact surfaces , - a potting compound , arranged on the component side of the printed circuit board , in which the contact elements are partly embedded, wherein the potting compound is in direct contact with and covers the contact surfaces and end portions of the contact elements on the printed circuit board side, and wherein the contact elements protrude, by second end portions that face away from the printed circuit board , from the potting compound , characterized in that the electrical assembly comprises a chip protection frame that, by a portion that faces toward the printed circuit board , is arranged on the component side of the printed circuit board and that, by a portion that faces away from the printed circuit board , protrudes outward from the potting compound , wherein the portion of the chip protection frame that protrudes outward from the potting compound forms a plurality of contact chambers , not filled with potting compound , that are respectively assigned to the contact elements , and respectively only one second end portion of a contact element is arranged in each contact chamber . - a printed circuit board that has at least one component side , - at least two contact surfaces arranged on the component side , - at least two contact elements , which are respectively electrically connected, by a first end portion on the printed circuit board side, to one of the contact surfaces , - a potting compound , arranged on the component side of the printed circuit board , in which the contact elements are partly embedded, wherein the potting compound is in direct contact with and covers the contact surfaces and end portions of the contact elements on the printed circuit board side, and wherein the contact elements protrude, by second end portions that face away from the printed circuit board , from the potting compound ,
A control device for controlling a vehicle testing apparatus or a vehicle lifting apparatus , configured to exchange data with one or more actuators (130-132) of said vehicle testing apparatus or said vehicle lifting apparatus and/or to exchange data with one or more sensors (120-122) of said vehicle testing apparatus or said vehicle lifting apparatus , said control device comprising a calculation unit , configured to drive said actuator or actuators (130-132) of said vehicle testing apparatus or said vehicle lifting apparatus and to query data from said sensor or sensors (120-122), and a transceiver , configured to wirelessly transmit data from said actuator or actuators (130-132) and/or said sensor or sensors (120-122) to one or more network(s) and/or to receive data from said network or networks, characterized in said control device being connectable over said network or networks to a background administration system , to which the data of said control device are transmitted and/or from which data are transmitted to said control device , and said control device being configured to transmit, before sending a control instruction to an actuator of said vehicle testing apparatus or said vehicle lifting apparatus , a request to said background administration system and, when said background administration system does not approve sending said control instruction, not to send said control instruction. characterized in said control device being connectable over said network or networks to a background administration system , to which the data of said control device are transmitted and/or from which data are transmitted to said control device , and said control device being configured to transmit, before sending a control instruction to an actuator of said vehicle testing apparatus or said vehicle lifting apparatus , a request to said background administration system and, when said background administration system does not approve sending said control instruction, not to send said control instruction.