mhurhangee/patent-ind-claim-en huggingface dataset:
A system for orientating scan cloud data of a surface relative to base reference data of a base reference, said base reference being formed by a mill to be used within the mining industry, the system comprising: an input source generator in the form of a laser scanner adapted to provide said scan cloud data from a mill, said scan cloud data having its co-ordinate system referenced to the input source generator ; wherein the base reference data, which are obtained from a CAD model of the mill or from a scanning of the internal shell of the mill without the liners in place, are referenced to its own co-ordinate system and the base reference data comprising key reference data to describe the geometry of the base reference; a transformation processor for orientating said scan cloud data relative to the base reference data; and a data editing means to filter spurious point data from the scan cloud data; wherein the system is arranged so that upon the scan cloud data being orientated relative to the base reference data, the base reference co-ordinate system aligns with the co-ordinate system of the input source generator; wherein the data editing means further includes partitioning means to partition said scan cloud data into discrete segments corresponding to different geometrically described sections of said surface, said partitioning means including a belly segmentation means to segment points in the scan cloud data attributable to a cylindrical shell by using a cylinder-fit process followed by a corresponding transformation of the scan cloud data. an input source generator in the form of a laser scanner adapted to provide said scan cloud data from a mill, said scan cloud data having its co-ordinate system referenced to the input source generator ; wherein the base reference data, which are obtained from a CAD model of the mill or from a scanning of the internal shell of the mill without the liners in place, are referenced to its own co-ordinate system and the base reference data comprising key reference data to describe the geometry of the base reference; a transformation processor for orientating said scan cloud data relative to the base reference data; and a data editing means to filter spurious point data from the scan cloud data; wherein the system is arranged so that upon the scan cloud data being orientated relative to the base reference data, the base reference co-ordinate system aligns with the co-ordinate system of the input source generator; wherein the data editing means further includes partitioning means to partition said scan cloud data into discrete segments corresponding to different geometrically described sections of said surface, said partitioning means including a belly segmentation means to segment points in the scan cloud data attributable to a cylindrical shell by using a cylinder-fit process followed by a corresponding transformation of the scan cloud data.
A tilling device for tilling ground surfaces , in particular lawn surfaces, comprising - at least one machine frame , - at least one support means supporting the machine frame on the ground , - a plurality of tools adapted to be moved up and down with respect to the machine frame , whereby they are adapted to be pushed into and pulled from the ground, - at least one adjustment means that adjusts the distance between the support means and the machine frame in the vertical direction in order to adjust the piercing depth of the tools into the ground, characterized in that the adjustment means also adjusts the distance between the support means and the tools , wherein the distance (X) between the support means and the tools can be reduced by the adjustment means as the distance (H) between the support means and the machine frame is increased, and wherein the distance (X) between the support means and the tools can be increased by the adjustment means as the distance (H) between the support means and the machine frame is reduced, wherein for an adjustment of the distance (X) between the tools and the support means , the adjustment means adjusts the support means in a direction that is substantially parallel to the traveling direction (A). - at least one machine frame , - at least one support means supporting the machine frame on the ground , - a plurality of tools adapted to be moved up and down with respect to the machine frame , whereby they are adapted to be pushed into and pulled from the ground, - at least one adjustment means that adjusts the distance between the support means and the machine frame in the vertical direction in order to adjust the piercing depth of the tools into the ground,
A method of wireless communication, being performed by a macro eNodeB connected to at least one remote radio head, RRH, comprising: selecting a common reference signal, CRS, virtualization scheme, wherein the CRS virtualization scheme maps physical antennas of the macro eNodeB and of the at least one RRH to CRS ports; transmitting a CRS using the virtualization scheme, wherein the number of CRS ports is equal to N, which is equal to the number of physical antennas of the at least one RRH and equal to the number of physical antennas of the macro eNodeB; wherein the step of selecting a CRS virtualization scheme comprises using, for each CRS port, a CRS precoding vector for the at least one RRH and a CRS precoding vector for the macro eNodeB, each CRS precoding vector having N elements; wherein each CRS port is created using a physical antenna at the macro eNodeB and a physical antenna at the at least one RRH, wherein the CRS precoding vectors at the at least one RRH are orthogonal and wherein the CRS precoding vectors at the macro eNodeB are orthogonal. selecting a common reference signal, CRS, virtualization scheme, wherein the CRS virtualization scheme maps physical antennas of the macro eNodeB and of the at least one RRH to CRS ports; transmitting a CRS using the virtualization scheme, wherein the number of CRS ports is equal to N, which is equal to the number of physical antennas of the at least one RRH and equal to the number of physical antennas of the macro eNodeB; wherein the step of selecting a CRS virtualization scheme comprises using, for each CRS port, a CRS precoding vector for the at least one RRH and a CRS precoding vector for the macro eNodeB, each CRS precoding vector having N elements; wherein each CRS port is created using a physical antenna at the macro eNodeB and a physical antenna at the at least one RRH, wherein the CRS precoding vectors at the at least one RRH are orthogonal and wherein the CRS precoding vectors at the macro eNodeB are orthogonal.
Method operated by a user equipment for a radio access network, the method comprising transmitting acknowledgement information reporting on subject transmissions associated to one or more subject transmission slots based on a HARQ codebook; wherein the HARQ codebook indicates a bit pattern of the acknowledgement information; wherein the HARQ codebook is based on a first numerology, the first numerology being used for the subject transmissions in a first communication direction, and a second numerology, the second numerology being used for transmitting the acknowledgement information in a second communication direction, wherein a first slot duration associated with the first numerology is different from a second slot duration associated with the second numerology; characterised in that the symbol time length according to the first numerology is different from the symbol time length according to the second numerology, wherein the second slot duration is shorter than the first slot duration, and the HARQ codebook is based on a subset of a set of slot timings, the subset being based on the slot used for transmission of the acknowledgement information. wherein the HARQ codebook indicates a bit pattern of the acknowledgement information; wherein the HARQ codebook is based on a first numerology, the first numerology being used for the subject transmissions in a first communication direction, and a second numerology, the second numerology being used for transmitting the acknowledgement information in a second communication direction, wherein a first slot duration associated with the first numerology is different from a second slot duration associated with the second numerology; characterised in that the symbol time length according to the first numerology is different from the symbol time length according to the second numerology, wherein the second slot duration is shorter than the first slot duration, and the HARQ codebook is based on a subset of a set of slot timings, the subset being based on the slot used for transmission of the acknowledgement information.
A method of treating particles, specifically carbon nanotubes or other nanoparticles, using glow-discharge plasma, in apparatus comprising a treatment vessel in the form of a rotatable drum, a central electrode in the drum and a counter-electrode positioned radially outwardly relative to the central electrode , the method comprising - putting the particles into the vessel; - reducing the pressure in the vessel to 1000 Pa or less; - feeding gas for forming the plasma into the vessel through said central electrode; - applying an electric field between the central axial electrode and counter-electrode to generate glow-discharge plasma between the electrodes in a region inside the vessel, and - agitating or rotating the vessel to cause relative movement of the particles for treating the particles with the glow-discharge plasma. - putting the particles into the vessel; - reducing the pressure in the vessel to 1000 Pa or less; - feeding gas for forming the plasma into the vessel through said central electrode; - applying an electric field between the central axial electrode and counter-electrode to generate glow-discharge plasma between the electrodes in a region inside the vessel, and - agitating or rotating the vessel to cause relative movement of the particles for treating the particles with the glow-discharge plasma.
An electronic control device comprising: - an electronic component ; - a control substrate on which the electronic component is mounted; - a sealing resin for sealing the control substrate ; - a fixing member at least a portion of which is sealed with the sealing resin ; - a terminal for providing electrical connection between the control substrate and an external device; and a fixing plate for positioning and fixing the terminal with respect to the fixing member , wherein the fixing member is a metal housing case provided with a penetration hole into which the terminal is inserted, and the metal housing case is configured by integrally molding a heat sink for dissipating heat generated from the electronic component to the outside of the electronic control device , an electromagnetic shield unit and a fixture for vehicle mounting for fixing the electronic control device to a vehicle, characterized in that : the electronic component is mounted on a surface of the control substrate facing the housing case such that the electronic component is surrounded by wiring layers of the housing case and the control substrate . - an electronic component ; - a control substrate on which the electronic component is mounted; - a sealing resin for sealing the control substrate ; - a fixing member at least a portion of which is sealed with the sealing resin ; - a terminal for providing electrical connection between the control substrate and an external device; and a fixing plate for positioning and fixing the terminal with respect to the fixing member , wherein the fixing member is a metal housing case provided with a penetration hole into which the terminal is inserted, and the metal housing case is configured by integrally molding a heat sink for dissipating heat generated from the electronic component to the outside of the electronic control device , an electromagnetic shield unit and a fixture for vehicle mounting for fixing the electronic control device to a vehicle, characterized in that : the electronic component is mounted on a surface of the control substrate facing the housing case such that the electronic component is surrounded by wiring layers of the housing case and the control substrate . a fixing plate for positioning and fixing the terminal with respect to the fixing member , wherein the fixing member is a metal housing case provided with a penetration hole into which the terminal is inserted, and the metal housing case is configured by integrally molding a heat sink for dissipating heat generated from the electronic component to the outside of the electronic control device , an electromagnetic shield unit and a fixture for vehicle mounting for fixing the electronic control device to a vehicle, characterized in that : the electronic component is mounted on a surface of the control substrate facing the housing case such that the electronic component is surrounded by wiring layers of the housing case and the control substrate .
A cell discovery method, comprising: receiving, by a second network node, a timing modification information sent by a first network node, wherein the timing modification information comprises a first timing advance of at least one user equipment handed over from the first network node to the second network node; determining, by the second network node, a modified timing of the second network node according to the acquired timing modification information, further comprising: determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; receiving, by the second network node, uplink resource information of the user equipment sent by the first network node; performing, by the second network node, detection of an uplink signal of the user equipment by using the modified timing and according to the uplink resource information; and when detecting proximity of the user equipment, sending, by the second network node, proximity information to the first network node. receiving, by a second network node, a timing modification information sent by a first network node, wherein the timing modification information comprises a first timing advance of at least one user equipment handed over from the first network node to the second network node; determining, by the second network node, a modified timing of the second network node according to the acquired timing modification information, further comprising: determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; receiving, by the second network node, uplink resource information of the user equipment sent by the first network node; performing, by the second network node, detection of an uplink signal of the user equipment by using the modified timing and according to the uplink resource information; and when detecting proximity of the user equipment, sending, by the second network node, proximity information to the first network node.
A method of switching 3rd Generation Partnership Project, 3GPP, access from Evolved Packet System, EPS, to a fifth Generation System, 5GS, the method performed by a second Access and Mobility Management Function, AMF , the method comprising: receiving (S1201), from a User Equipment, UE , a registration request message, wherein the registration request message includes a first 5G-GUTI, wherein the first 5G-GUTI was assigned by a first AMF of a Public Land Mobile Network, PLMN, and the first 5G-GUTI includes ID information of the first AMF and the second AMF and wherein the UE undergoes handover for 3GPP access from the EPS to a fifth Generation System, 5GS, of the PLMN, wherein the UE registered with the first AMF of the 5GS through a non-3GPP access; and assigning a second 5G-GUTI that is common to both the 3GPP access and the non-3GPP access, wherein the second 5G-GUTI is used by the UE for both the 3GPP access and the non-3GPP access and is generated from updating the first 5G-GUTI; sending (S1204), to the UE , a registration accept message including the second 5G-GUTI. receiving (S1201), from a User Equipment, UE , a registration request message, wherein the registration request message includes a first 5G-GUTI, wherein the first 5G-GUTI was assigned by a first AMF of a Public Land Mobile Network, PLMN, and the first 5G-GUTI includes ID information of the first AMF and the second AMF and wherein the UE undergoes handover for 3GPP access from the EPS to a fifth Generation System, 5GS, of the PLMN, wherein the UE registered with the first AMF of the 5GS through a non-3GPP access; and assigning a second 5G-GUTI that is common to both the 3GPP access and the non-3GPP access, wherein the second 5G-GUTI is used by the UE for both the 3GPP access and the non-3GPP access and is generated from updating the first 5G-GUTI; sending (S1204), to the UE , a registration accept message including the second 5G-GUTI.
Battery comprising a first housing element and a second housing element , which together form an interior space for receiving a battery module , wherein a plurality of battery cells of the battery module , which are connected in an electrically conducting manner to one another in series and/or in parallel, are arranged in the interior space , wherein the battery cells are in particular prismatic and a first element of a battery controller is further arranged in the interior space , wherein the first element of the battery controller comprises at least one electronic component , which is a switch, a fuse element, a battery control system and/or a resistor, wherein the first housing element forms a first temperature-control structure on a side facing away from the interior space and in particular the second housing element , wherein the second housing element forms a second temperature-control structure on a side facing the interior space and in particular the first housing element , and a covering element is connected to the second housing element in such a way that the covering element delimits a temperature-control fluid receptacle , through which a temperature-control fluid can flow, in a fluid-tight manner from the interior space and the second temperature-control structure is formed such that the temperature-control fluid can flow around it, wherein the first element of the battery controller is arranged in a thermally conducting manner on a side of the covering element that is facing towards the interior space . a first housing element and a second housing element , which together form an interior space for receiving a battery module , wherein a plurality of battery cells of the battery module , which are connected in an electrically conducting manner to one another in series and/or in parallel, are arranged in the interior space , wherein the battery cells are in particular prismatic and a first element of a battery controller is further arranged in the interior space , wherein the first element of the battery controller comprises at least one electronic component , which is a switch, a fuse element, a battery control system and/or a resistor, wherein the first housing element forms a first temperature-control structure on a side facing away from the interior space and in particular the second housing element , wherein the second housing element forms a second temperature-control structure on a side facing the interior space and in particular the first housing element , and a covering element is connected to the second housing element in such a way that the covering element delimits a temperature-control fluid receptacle , through which a temperature-control fluid can flow, in a fluid-tight manner from the interior space and the second temperature-control structure is formed such that the temperature-control fluid can flow around it, wherein the first element of the battery controller is arranged in a thermally conducting manner on a side of the covering element that is facing towards the interior space .
A method for monitoring a status of a service, the method being executed by a monitoring agent of a server computing device, the method comprising: collecting, during a tracking window, statistics associated with at least one service dependency of the service, wherein the at least one service dependency comprises one or more first downstream services on which the service depends, and wherein each of the one or more first downstream services comprises a respective second downstream service on which it depends; for each of the one or more first downstream services: counting a number of successful responses received from the one or more first downstream service, wherein the one or more first downstream service issues a successful response to the service only when the respective second downstream service associated with the one or more first downstream service issues a successful response to the one or more first downstream service, and counting a number of failed responses associated with the one or more first downstream service; calculating at least one ratio, wherein the ratio is the number of successful responses to the number of failed responses ; generating a status of the service by comparing the at least one ratio to a threshold value; and transmitting the generated status of the service to a health check engine in a domain name server- DNS- in order to update a classification of an association between a host name and a network address in a data structure maintained by the DNS server. collecting, during a tracking window, statistics associated with at least one service dependency of the service, wherein the at least one service dependency comprises one or more first downstream services on which the service depends, and wherein each of the one or more first downstream services comprises a respective second downstream service on which it depends; for each of the one or more first downstream services: counting a number of successful responses received from the one or more first downstream service, wherein the one or more first downstream service issues a successful response to the service only when the respective second downstream service associated with the one or more first downstream service issues a successful response to the one or more first downstream service, and counting a number of failed responses associated with the one or more first downstream service; calculating at least one ratio, wherein the ratio is the number of successful responses to the number of failed responses ; generating a status of the service by comparing the at least one ratio to a threshold value; and transmitting the generated status of the service to a health check engine in a domain name server- DNS- in order to update a classification of an association between a host name and a network address in a data structure maintained by the DNS server.