mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting device comprising: a substrate which comprises a ceramic body ; a body which is disposed on the substrate and has a first hole having a predetermined size; a light emitting chip which is disposed within a cavity formed by the substrate and the first hole of the body ; a cap which is disposed on the body and has a second hole having a predetermined size; and a transparent window which is disposed in the second hole ; characterized in that a third hole is formed in the ceramic body and the substrate comprises a heat radiation block inserted into the third hole , and wherein the light emitting device further comprises a sub-mount which is attached and fixed to a lower portion of the light emitting chip , and wherein the sub-mount is disposed on the heat radiation block . a substrate which comprises a ceramic body ; a body which is disposed on the substrate and has a first hole having a predetermined size; a light emitting chip which is disposed within a cavity formed by the substrate and the first hole of the body ; a cap which is disposed on the body and has a second hole having a predetermined size; and a transparent window which is disposed in the second hole ; characterized in that a third hole is formed in the ceramic body and the substrate comprises a heat radiation block inserted into the third hole , and wherein the light emitting device further comprises a sub-mount which is attached and fixed to a lower portion of the light emitting chip , and wherein the sub-mount is disposed on the heat radiation block .
A light detection and ranging, LIDAR, device comprising: a first light source configured to emit first light; a first reflector comprising a reflective surface symmetrical with reference to a central axis of the first reflector and configured to receive second light that is light reflected or scattered by an object that is irradiated by the first light in 360 degrees of a lateral direction to the central axis of the first reflector , and reflect the second light; a light detector comprising a pixel array, the light detector being configured to detect the second light reflected from the first reflector ; and a processor configured to acquire location information of the object based on detection of the second light by the light detector , wherein the first reflector has a tapered shape with a width gradually narrowing from an upper area of the first reflector to a lower area of the first reflector ; characterized in that the first reflector comprises a cavity that is a vacant space provided inside an upper area of the first reflector , and the first light source is provided in the cavity . a first light source configured to emit first light; a first reflector comprising a reflective surface symmetrical with reference to a central axis of the first reflector and configured to receive second light that is light reflected or scattered by an object that is irradiated by the first light in 360 degrees of a lateral direction to the central axis of the first reflector , and reflect the second light; a light detector comprising a pixel array, the light detector being configured to detect the second light reflected from the first reflector ; and a processor configured to acquire location information of the object based on detection of the second light by the light detector , wherein the first reflector has a tapered shape with a width gradually narrowing from an upper area of the first reflector to a lower area of the first reflector ; characterized in that the first reflector comprises a cavity that is a vacant space provided inside an upper area of the first reflector , and the first light source is provided in the cavity .
An aircraft system comprising: a display system ; a graphical user interface configured to display controls on the display system , wherein the controls are for controlling sending of commands that control parameters relating to the trajectory of the aircraft, wherein the commands are sent to an auto-flight system in an aircraft to control flight of the aircraft ; a first grouping of the controls in the graphical user interface , wherein controls of the first grouping are configured to control sending of commands generated by a flight management system in the aircraft to the auto-flight system ; and a second grouping of the controls in the graphical user interface , wherein the controls of the second grouping are configured to control sending of commands generated by a user input to the graphical user interface to the auto-flight system ; wherein the first grouping of the controls and the second grouping of the controls include different controls. a display system ; a graphical user interface configured to display controls on the display system , wherein the controls are for controlling sending of commands that control parameters relating to the trajectory of the aircraft, wherein the commands are sent to an auto-flight system in an aircraft to control flight of the aircraft ; a first grouping of the controls in the graphical user interface , wherein controls of the first grouping are configured to control sending of commands generated by a flight management system in the aircraft to the auto-flight system ; and a second grouping of the controls in the graphical user interface , wherein the controls of the second grouping are configured to control sending of commands generated by a user input to the graphical user interface to the auto-flight system ; wherein the first grouping of the controls and the second grouping of the controls include different controls.
Process comprising the process steps of: a) initially charging an olefin; b) adding a compound of formula (I): where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are selected from: - H, - (C 1 -C 12 ) -alkyl, - (C 6 -C 20 ) -aryl; and, if R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are -(C 6 -C 20 )-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl; c) adding a Pt compound capable of forming a complex; d) adding a bromine compound; e) feeding in CO and H 2 ; f) heating the reaction mixture from a) to e), to convert the olefin to an aldehyde. a) initially charging an olefin; b) adding a compound of formula (I): where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are selected from: - H, - (C 1 -C 12 ) -alkyl, - (C 6 -C 20 ) -aryl; and, if R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are -(C 6 -C 20 )-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl; where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are selected from: - H, - (C 1 -C 12 ) -alkyl, - (C 6 -C 20 ) -aryl; and, if R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 are -(C 6 -C 20 )-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 )-alkyl; c) adding a Pt compound capable of forming a complex; d) adding a bromine compound; e) feeding in CO and H 2 ; f) heating the reaction mixture from a) to e), to convert the olefin to an aldehyde.
A core/shell semiconductor nanoparticle comprising: a core comprising a halide perovskite semiconductor; and a shell substantially surrounding the core and comprising BaTiO 3 , SrTiO 3 , BiFeO 3 , LaNiO 3 , CaTiO 3 , PbTiO 3 , LaYbO 3 , or a semiconductor material that is not a halide perovskite, wherein the shell is substantially free of halide perovskites. a core comprising a halide perovskite semiconductor; and a shell substantially surrounding the core and comprising BaTiO 3 , SrTiO 3 , BiFeO 3 , LaNiO 3 , CaTiO 3 , PbTiO 3 , LaYbO 3 , or a semiconductor material that is not a halide perovskite, wherein the shell is substantially free of halide perovskites.
A non-terrestrial network distributed network device (110-1), comprising: at least one processor; and at least one memory including computer program codes; the at least one processor being configured to execute the computer program codes included in the at least one memory to cause the device at least to: in response to the distributed network device being to be disconnected with a centralized network device (120-1) and connected with a further centralized network device, transmit an interface resuming request from the distributed network device to the further centralized network device (120-2), the interface resuming request being used for resuming an inactivated interface between the further centralized network device and the distributed network device; and in response to receiving, from the further centralized network device, a resuming status message indicating the interface is successfully resumed, activate the inactivated interface to complete the resume procedure. at least one processor; and at least one memory including computer program codes; the at least one processor being configured to execute the computer program codes included in the at least one memory to cause the device at least to: in response to the distributed network device being to be disconnected with a centralized network device (120-1) and connected with a further centralized network device, transmit an interface resuming request from the distributed network device to the further centralized network device (120-2), the interface resuming request being used for resuming an inactivated interface between the further centralized network device and the distributed network device; and in response to receiving, from the further centralized network device, a resuming status message indicating the interface is successfully resumed, activate the inactivated interface to complete the resume procedure. in response to the distributed network device being to be disconnected with a centralized network device (120-1) and connected with a further centralized network device, transmit an interface resuming request from the distributed network device to the further centralized network device (120-2), the interface resuming request being used for resuming an inactivated interface between the further centralized network device and the distributed network device; and in response to receiving, from the further centralized network device, a resuming status message indicating the interface is successfully resumed, activate the inactivated interface to complete the resume procedure.
A colored adhesive cosmetic composition for fake eyelashes, comprising: (i) at least one acrylates/ethylhexyl acrylate copolymer which has a Tg of -30 °C or less, and which is present in an amount ranging from 30% to 60% by weight based on the total weight of the composition, (ii) at least one hydrophilic thickener selected from xanthan gum, hydroxyethylcellulose and ammonium acryloyldimethyltaurate/vinylpyrrolidone copolymer; (iii) at least one pigment; and (iv) water. (i) at least one acrylates/ethylhexyl acrylate copolymer which has a Tg of -30 °C or less, and which is present in an amount ranging from 30% to 60% by weight based on the total weight of the composition, (ii) at least one hydrophilic thickener selected from xanthan gum, hydroxyethylcellulose and ammonium acryloyldimethyltaurate/vinylpyrrolidone copolymer; (iii) at least one pigment; and (iv) water.
A cooling device installed on an inverter, as an industrial electronic product, that changes a DC to an AC having a frequency and a voltage that require a commercial AC power, the cooling device comprising: a case including a first region (FR) that is partially opened to an outside, and a second region (SR) that is closed to the outside and separated from the first region (FR), in an integrated space; a first cooling unit arranged at the first region (FR) to cool a first heat generating unit using an outside air; wherein the case includes a separator that completely separates the first region (FR) and the second region (SR) in the case , wherein the first cooling unit includes a heat sink coupled to the first heat generating unit and a cooling fan configured to introduce the outside air to the first region (FR), and wherein a part of the separator is formed with an opening, where the opening formed by the separator allows the first heat generating unit arranged in the second region (SR) to be coupled to the heat sink arranged in the first region (FR); characterized by a second cooling unit arranged at the second region (SR) to cool a second heat generating unit using inside air; wherein the second cooling unit includes a support plate configured to support the second heat generating unit and a circulation fan configured to circulate the inside air in the second region (SR); wherein the circulation fan is slantly arranged relative to the support plate ; and wherein at least one distal end of one side of the support plate is distanced from a lateral surface plate of the case , and the support plate is formed with an opening coupled to the circulation fan . a case including a first region (FR) that is partially opened to an outside, and a second region (SR) that is closed to the outside and separated from the first region (FR), in an integrated space; a first cooling unit arranged at the first region (FR) to cool a first heat generating unit using an outside air; wherein the case includes a separator that completely separates the first region (FR) and the second region (SR) in the case , wherein the first cooling unit includes a heat sink coupled to the first heat generating unit and a cooling fan configured to introduce the outside air to the first region (FR), and wherein a part of the separator is formed with an opening, where the opening formed by the separator allows the first heat generating unit arranged in the second region (SR) to be coupled to the heat sink arranged in the first region (FR); characterized by a second cooling unit arranged at the second region (SR) to cool a second heat generating unit using inside air; wherein the second cooling unit includes a support plate configured to support the second heat generating unit and a circulation fan configured to circulate the inside air in the second region (SR); wherein the circulation fan is slantly arranged relative to the support plate ; and wherein at least one distal end of one side of the support plate is distanced from a lateral surface plate of the case , and the support plate is formed with an opening coupled to the circulation fan .
Circuit for selectively supplying exactly one motor of a plurality of motors with energy provided by exactly one converter , comprising - a plurality of multi-phase motor terminals for connecting multi-phase motors ; - exactly one multi-phase converter terminal for connecting exactly one converter , - a plurality of electrical connections , ∘ each of the electrical connections comprising a plurality of phase lines , ∘ each of the electrical connections being connected to the converter terminal , and ∘ exactly one of the electrical connections being connected to exactly one of the motor terminals in each case, - exactly one MOSFET , for selectively switching the relevant phase line, being arranged in each phase line of an electrical connection ; characterised in that the motors each have a star point in which the plurality of phases of the relevant motor meet, all of the source terminals of the MOSFETs being connected to the relevant motor terminal in at least one of the electrical connections , and the control module having a bootstrap circuit. - a plurality of multi-phase motor terminals for connecting multi-phase motors ; - exactly one multi-phase converter terminal for connecting exactly one converter , - a plurality of electrical connections , ∘ each of the electrical connections comprising a plurality of phase lines , ∘ each of the electrical connections being connected to the converter terminal , and ∘ exactly one of the electrical connections being connected to exactly one of the motor terminals in each case, ∘ each of the electrical connections comprising a plurality of phase lines , ∘ each of the electrical connections being connected to the converter terminal , and ∘ exactly one of the electrical connections being connected to exactly one of the motor terminals in each case, - exactly one MOSFET , for selectively switching the relevant phase line, being arranged in each phase line of an electrical connection ; characterised in that the motors each have a star point in which the plurality of phases of the relevant motor meet, all of the source terminals of the MOSFETs being connected to the relevant motor terminal in at least one of the electrical connections , and the control module having a bootstrap circuit. characterised in that the motors each have a star point in which the plurality of phases of the relevant motor meet, all of the source terminals of the MOSFETs being connected to the relevant motor terminal in at least one of the electrical connections , and the control module having a bootstrap circuit.
System for controlling the motion of an impulsive-type human-powered vehicle , comprising: - a motor associatable to at least one vehicle driving element, such as a driving wheel , configured for generating a total torque/driving force (T); - a system for storing energy to be supplied to the motor ; - a sensor for detecting the vehicle longitudinal speed (v) and configured for generating a signal representative of said vehicle longitudinal speed; - a module for controlling a main torque/driving force (T') of the motor based on at least the signal representative of the vehicle longitudinal speed (v); - a module for determining the vehicle longitudinal acceleration (Ax) and configured for generating a signal representative of the vehicle longitudinal acceleration; - a module for estimating the presence or absence of a thrust (F k ) by the user on the vehicle based on at least said signal representative of vehicle longitudinal acceleration (Ax), configured for supplying to the module for controlling the main torque/driving force (T') an activation signal when it is estimated the absence of the thrust (F k ) by the user; characterized in that the estimating module is further configured for supplying a deactivation signal when it is estimated the presence of the thrust (F k ) by the user. - a motor associatable to at least one vehicle driving element, such as a driving wheel , configured for generating a total torque/driving force (T); - a system for storing energy to be supplied to the motor ; - a sensor for detecting the vehicle longitudinal speed (v) and configured for generating a signal representative of said vehicle longitudinal speed; - a module for controlling a main torque/driving force (T') of the motor based on at least the signal representative of the vehicle longitudinal speed (v); - a module for determining the vehicle longitudinal acceleration (Ax) and configured for generating a signal representative of the vehicle longitudinal acceleration; - a module for estimating the presence or absence of a thrust (F k ) by the user on the vehicle based on at least said signal representative of vehicle longitudinal acceleration (Ax), configured for supplying to the module for controlling the main torque/driving force (T') an activation signal when it is estimated the absence of the thrust (F k ) by the user;
A computing device in communication with a network associated with an operating room, comprising: a processor configured to: determine a locus of the network with which the processor is in communication, wherein the locus of the network is any of a first network or a second network; identify a data communications session, determine a data type of the data communications session, and direct the data communications session to the first network or the second network based on the locus of the network and the data type of the data communications session. a processor configured to: determine a locus of the network with which the processor is in communication, wherein the locus of the network is any of a first network or a second network; identify a data communications session, determine a data type of the data communications session, and direct the data communications session to the first network or the second network based on the locus of the network and the data type of the data communications session.
A method of generating a Detailed Call Record, DCR, for a Voice over LTE, VoLTE, call in an LTE wireless communication network , comprising: for each leg of the call, collecting network data associated with the call from all involved domains , using domain-specific identifiers associated with a subscriber; for each leg of the call, pre-correlating the collected data by mapping the domain-specific identifiers to a common identifier associated with a subscriber; and correlating the data across all legs of the call, using the common identifiers, to generate a DCR including all events, across all domains , for all legs of the call, wherein correlating the data across all legs of the call, using the common identifier, to generate a DCR comprises: - extracting events related to voice calls by determining the start and end timestamp of the call for each leg, and selecting every event between the timestamps; - assigning an IMS Charging Identifier, ICID, to voice call events; and - after detecting a termination message for the last leg of the call, assembling the extracted and identified events for each leg into a DCR. for each leg of the call, collecting network data associated with the call from all involved domains , using domain-specific identifiers associated with a subscriber; for each leg of the call, pre-correlating the collected data by mapping the domain-specific identifiers to a common identifier associated with a subscriber; and correlating the data across all legs of the call, using the common identifiers, to generate a DCR including all events, across all domains , for all legs of the call, wherein correlating the data across all legs of the call, using the common identifier, to generate a DCR comprises: - extracting events related to voice calls by determining the start and end timestamp of the call for each leg, and selecting every event between the timestamps; - assigning an IMS Charging Identifier, ICID, to voice call events; and - after detecting a termination message for the last leg of the call, assembling the extracted and identified events for each leg into a DCR. - extracting events related to voice calls by determining the start and end timestamp of the call for each leg, and selecting every event between the timestamps; - assigning an IMS Charging Identifier, ICID, to voice call events; and - after detecting a termination message for the last leg of the call, assembling the extracted and identified events for each leg into a DCR.
A polycarbonate resin composition comprising 3 to 30 mass parts of (C) a phosphazene compound and 0.001 to 1 mass parts of (D) a fluoropolymer per 100 mass parts of the total of a component (A) and a component (B) formed of 40 to 95 mass% of (A) a polycarbonate resin and 5 to 60 mass% of (B) a filler selected from glass fillers and carbon fibers, wherein the phosphazene compound (C) is a granular phosphazene compound that has a percentage retained on a sieve with an aperture of 400 μm of at least 55 mass% and that has a bulk density of 0.3 to 1.5 g/mL.