mhurhangee/patent-ind-claim-en huggingface dataset:
A gimbal for carrying an imaging device, said gimbal comprising: a first support frame , a second support frame pivotably connected with the first support frame , a third support frame pivotably connected with the second support frame , and a support assembly for supporting the imaging device; wherein the first support frame comprises two first pillars , two guiding posts and two first clamping devices , the guiding posts being substantially perpendicular to the two first pillars , the two guiding posts being movable along a longitudinal direction of the first pillars through the first clamping devices ; the support assembly comprises two first adaptors slidably arranged on the guiding posts ; the third support frame comprises a third pillar connected with the second support frame and a connecting plate movably arranged on the third pillar ; wherein the gimbal further comprises at least one center of gravity adjusting unit , the at least one center of gravity adjusting unit is at least arranged on the first pillar , between the two first clamping devices or in the connecting plate , and the at least one center of gravity adjusting unit is configured to at least adjust a position of the guiding posts on the first pillar , or a position of the first adaptors on the guiding posts , or a position of the third pillar on the connecting plate ; and wherein the at least one center of gravity adjusting unit comprises a threaded rod used by the at least one center of gravity adjusting unit to adjust the position. a first support frame , a second support frame pivotably connected with the first support frame , a third support frame pivotably connected with the second support frame , and a support assembly for supporting the imaging device; wherein the first support frame comprises two first pillars , two guiding posts and two first clamping devices , the guiding posts being substantially perpendicular to the two first pillars , the two guiding posts being movable along a longitudinal direction of the first pillars through the first clamping devices ; the support assembly comprises two first adaptors slidably arranged on the guiding posts ; the third support frame comprises a third pillar connected with the second support frame and a connecting plate movably arranged on the third pillar ; wherein the gimbal further comprises at least one center of gravity adjusting unit , the at least one center of gravity adjusting unit is at least arranged on the first pillar , between the two first clamping devices or in the connecting plate , and the at least one center of gravity adjusting unit is configured to at least adjust a position of the guiding posts on the first pillar , or a position of the first adaptors on the guiding posts , or a position of the third pillar on the connecting plate ; and wherein the at least one center of gravity adjusting unit comprises a threaded rod used by the at least one center of gravity adjusting unit to adjust the position.
A hard hat lighting system, comprising: a lamp ; a hard hat (10; 100) with a mounting ridge (12, 20; 102) comprising opposite edges (30; 122), the mounting ridge (12, 20; 102) located on a side of the hard hat (10; 100); a mounting bracket (24; 108) that securely and removably mounts to the mounting ridge (12, 20; 102) of the hard hat (10; 100), the mounting bracket (24; 108) removably coupled to the lamp (22; 142), the mounting bracket (24; 108) comprising: receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108). a lamp ; a hard hat (10; 100) with a mounting ridge (12, 20; 102) comprising opposite edges (30; 122), the mounting ridge (12, 20; 102) located on a side of the hard hat (10; 100); a mounting bracket (24; 108) that securely and removably mounts to the mounting ridge (12, 20; 102) of the hard hat (10; 100), the mounting bracket (24; 108) removably coupled to the lamp (22; 142), the mounting bracket (24; 108) comprising: receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108). receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108).
Stimulation device having a sleeve-shaped body formed by an at least partially flexible wall which has a first end section with a first end forming a first end of the sleeve-shaped body and a second end section which is situated away from the first end section with a second end forming a second end of the sleeve-shaped body , lying substantially opposite the first end , arranged at a distance from the first end , and containing an opening for the inserting of a body part sensitive to stimulation into the sleeve-shaped body , a loading mechanism which is designed to act on the first end section of the wall of the sleeve-shaped body with a time-variable, in particular oscillating first force that varies the distance between the first end of the sleeve-shaped body and the second end of the sleeve-shaped body , alternately as a pulling force for relative lengthening of the distance between the first end and the second end of the sleeve-shaped body and as a compressive force for relative shortening of the distance between the first end and the second end of the sleeve-shaped body , and outside the sleeve-shaped body a first chamber is provided the wall of which has a first section, formed at least partially by the first end section of the wall of the sleeve-shaped body , characterised in that the loading mechanism is designed, in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a pulling force, to produce a negative pressure in the first chamber for lengthening the distance between the first end and the second end of the sleeve-shaped body , and in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a compressive force, to produce an overpressure in the first chamber . a loading mechanism which is designed to act on the first end section of the wall of the sleeve-shaped body with a time-variable, in particular oscillating first force that varies the distance between the first end of the sleeve-shaped body and the second end of the sleeve-shaped body , alternately as a pulling force for relative lengthening of the distance between the first end and the second end of the sleeve-shaped body and as a compressive force for relative shortening of the distance between the first end and the second end of the sleeve-shaped body , and outside the sleeve-shaped body a first chamber is provided the wall of which has a first section, formed at least partially by the first end section of the wall of the sleeve-shaped body , characterised in that the loading mechanism is designed, in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a pulling force, to produce a negative pressure in the first chamber for lengthening the distance between the first end and the second end of the sleeve-shaped body , and in order to act on the first end section of the wall of the sleeve-shaped body with the first force as a compressive force, to produce an overpressure in the first chamber .
A contact monitoring device (B) for a vacuum circuit breaker (A), wherein the vacuum circuit breaker (A) includes: a vacuum interrupter includes: a fixed electrode fixedly received in an insulating container; a fixed contact disposed at one end of the fixed electrode ; a movable electrode installed in the insulating container, wherein the movable electrode is movable downwardly or upwardly; and a movable contact disposed at one end of the movable electrode , wherein the movable contact contacts or is spaced from the fixed contact ; a push rod assembly coupled to the other end of the movable electrode for raising up or lowering the movable electrode , wherein the contact monitoring device (B) includes a sensor assembly installable adjacent to the push rod assembly ; wherein the sensor assembly has a sensing direction different from a movement direction of the push rod assembly , characterized in that the sensor assembly has a discriminative sticker attachable to an outer circumferential face of a rod housing of the push rod assembly ; and wherein the sensor assembly is adapted to detect an open position of the discriminative sticker . a fixed electrode fixedly received in an insulating container; a fixed contact disposed at one end of the fixed electrode ; a movable electrode installed in the insulating container, wherein the movable electrode is movable downwardly or upwardly; and a movable contact disposed at one end of the movable electrode , wherein the movable contact contacts or is spaced from the fixed contact ; a push rod assembly coupled to the other end of the movable electrode for raising up or lowering the movable electrode , wherein the contact monitoring device (B) includes a sensor assembly installable adjacent to the push rod assembly ; wherein the sensor assembly has a sensing direction different from a movement direction of the push rod assembly , characterized in that the sensor assembly has a discriminative sticker attachable to an outer circumferential face of a rod housing of the push rod assembly ; and
A call recording system configured to transmit, over an IP network, call audio data from IP phones engaging in a voice call to a recording server as recording data so that the call audio data is recorded in the recording server , wherein when a call session is set between the IP phones of conversing parties at a start of a call, the IP phones exchange with each other information on a quality of communication between a host IP phone and the recording server to compare the quality of communication of the IP phones , if the quality of communication of the host IP phone is determined higher than the quality of communication of the IP phone of a conversing party, the host IP phone is configured to transmit the call audio data to the recording server as the recording data, and if the quality of communication of the host IP phone is determined lower than the quality of communication of the IP phone of the conversing party, the host IP phone is configured to refrain from transmitting the call audio data to the recording server . when a call session is set between the IP phones of conversing parties at a start of a call, the IP phones exchange with each other information on a quality of communication between a host IP phone and the recording server to compare the quality of communication of the IP phones , if the quality of communication of the host IP phone is determined higher than the quality of communication of the IP phone of a conversing party, the host IP phone is configured to transmit the call audio data to the recording server as the recording data, and if the quality of communication of the host IP phone is determined lower than the quality of communication of the IP phone of the conversing party, the host IP phone is configured to refrain from transmitting the call audio data to the recording server .
Phased array antenna with an electronically variable antenna pattern, having: at least two phased antenna elements for transmitting or receiving useful signal components having different phase positions via at least two phase control elements ; and at least two receiver elements (126, 128; 127, 129; 125) assigned to the phase control elements , for receiving broadcast control signals for the phase control elements in a frequency band differing from the frequency band of the useful signal components, characterised in that the receiver elements (126, 128; 127, 129; 125) are configured to detect control signals broadcast on feed lines for the useful signal components of the phased antenna elements . at least two phased antenna elements for transmitting or receiving useful signal components having different phase positions via at least two phase control elements ; and at least two receiver elements (126, 128; 127, 129; 125) assigned to the phase control elements , for receiving broadcast control signals for the phase control elements in a frequency band differing from the frequency band of the useful signal components, characterised in that the receiver elements (126, 128; 127, 129; 125) are configured to detect control signals broadcast on feed lines for the useful signal components of the phased antenna elements .
A method of managing service requests by a mobile device accessing a mobile network, the method comprising at the mobile device: sending from a user application (202, 204, 206; 702) of the mobile device a service request (302, 402, 502; 304, 404, 504) to a radio resource control, RRC, module (210; 706) of the mobile device; determining by the RRC module whether to reject the service request based on access class barring; in response to the RRC module determining a rejection of the service request, receiving, at the user application , from the RRC module, an indication of failure of or a rejection to the service request due to access class barring; and in response to receiving the indication of failure or the rejection , preventing a retry of the service request until expiration of an access-class-barring timer of the RRC module that resulted in the access class barring, wherein preventing a retry of the service request comprises aligning a retry timer for the user application to the access-class-barring timer that resulted in the access class barring, and wherein aligning the retry timer comprises informing the user application (202, 204, 206; 702) when the access-class-barring timer will expire. sending from a user application (202, 204, 206; 702) of the mobile device a service request (302, 402, 502; 304, 404, 504) to a radio resource control, RRC, module (210; 706) of the mobile device; determining by the RRC module whether to reject the service request based on access class barring; in response to the RRC module determining a rejection of the service request, receiving, at the user application , from the RRC module, an indication of failure of or a rejection to the service request due to access class barring; and in response to receiving the indication of failure or the rejection , preventing a retry of the service request until expiration of an access-class-barring timer of the RRC module that resulted in the access class barring, wherein preventing a retry of the service request comprises aligning a retry timer for the user application to the access-class-barring timer that resulted in the access class barring, and wherein aligning the retry timer comprises informing the user application (202, 204, 206; 702) when the access-class-barring timer will expire.
An aircraft power and propulsion system , comprising: an air compressor ; a heat rejection heat exchanger ; a combustor positioned to receive compressed air from the air compressor as a core stream and provide thrust to the aircraft; and a closed-loop s-CO2 system having carbon dioxide as a working fluid, that receives power from the combustor and rejects heat via the heat rejection heat exchanger to a cooling stream , the closed-loop s-CO2 system is configured to provide power to: a fan of the power and propulsion system that provides the cooling stream and thrust ; the air compressor ; and auxiliary loads comprising at least one auxiliary power load , at least one auxiliary actuation load , and at least one heating load ; and wherein the closed-loop s-CO2 system provides power via the working fluid to the auxiliary loads by being configured to provide a first grade of energy to the auxiliary actuation load to provide a first aircraft function ; and a second grade of energy being different from the first grade of energy to the auxiliary heating load to provide a second aircraft function being different from the first aircraft function . an air compressor ; a heat rejection heat exchanger ; a combustor positioned to receive compressed air from the air compressor as a core stream and provide thrust to the aircraft; and a closed-loop s-CO2 system having carbon dioxide as a working fluid, that receives power from the combustor and rejects heat via the heat rejection heat exchanger to a cooling stream , the closed-loop s-CO2 system is configured to provide power to: a fan of the power and propulsion system that provides the cooling stream and thrust ; the air compressor ; and auxiliary loads comprising at least one auxiliary power load , at least one auxiliary actuation load , and at least one heating load ; and wherein the closed-loop s-CO2 system provides power via the working fluid to the auxiliary loads by being configured to provide a first grade of energy to the auxiliary actuation load to provide a first aircraft function ; and a second grade of energy being different from the first grade of energy to the auxiliary heating load to provide a second aircraft function being different from the first aircraft function . a fan of the power and propulsion system that provides the cooling stream and thrust ; the air compressor ; and auxiliary loads comprising at least one auxiliary power load , at least one auxiliary actuation load , and at least one heating load ; and wherein the closed-loop s-CO2 system provides power via the working fluid to the auxiliary loads by being configured to provide a first grade of energy to the auxiliary actuation load to provide a first aircraft function ; and a second grade of energy being different from the first grade of energy to the auxiliary heating load to provide a second aircraft function being different from the first aircraft function .
A method for communicating with a terminal by a base station in a mobile communication system, the method comprising: performing , with the terminal, an initial access based on a cell-specific reference signal, CRS; transmitting , to the terminal, configuration information on a plurality of channel status information reference signals, CSI-RS, for a centralized antenna port, C-port, using cell specific signaling; receiving sounding reference signal, SRS, through centralized and distributed antenna ports, after having requested SRS transmission to the terminal ; determining whether to configure the terminal in distributed antenna system, DAS, mode based on transmission power and received signal strength of the SRS; selecting a candidate set of distributed antenna ports, D-ports, for the terminal upon determination to configure the terminal in DAS mode; transmitting , to the terminal, information indicating a configuration of a plurality of CSI-RSs for the candidate set of D-ports, through terminal specific signaling; and communicating with the terminal using at least one selected antenna port from the candidate set of D-ports and the C-port based on feedback information including transmission position information received from the terminal. performing , with the terminal, an initial access based on a cell-specific reference signal, CRS; transmitting , to the terminal, configuration information on a plurality of channel status information reference signals, CSI-RS, for a centralized antenna port, C-port, using cell specific signaling; receiving sounding reference signal, SRS, through centralized and distributed antenna ports, after having requested SRS transmission to the terminal ; determining whether to configure the terminal in distributed antenna system, DAS, mode based on transmission power and received signal strength of the SRS; selecting a candidate set of distributed antenna ports, D-ports, for the terminal upon determination to configure the terminal in DAS mode; transmitting , to the terminal, information indicating a configuration of a plurality of CSI-RSs for the candidate set of D-ports, through terminal specific signaling; and communicating with the terminal using at least one selected antenna port from the candidate set of D-ports and the C-port based on feedback information including transmission position information received from the terminal.
A process for capturing and/or detecting at least one chemical element in a sample, comprising the following steps: a) a liquid phase L is prepared comprising at least: - an amine; - a sample comprising at least one chemical element selected from the group comprising poor metals, alkaline earths, actinides, rare earths, transition metals, and combination thereof; - optionally a solvent; b) the liquid phase L is contacted with a gas phase G comprising a gas selected from CO 2 , COS and CS 2 , under conditions resulting in the formation of a segmented flow, so as to form a third phase concentrating said chemical element, called "concentrated phase", suspended in a stock solution; c) the concentrated phase is separated from the stock solution. a) a liquid phase L is prepared comprising at least: - an amine; - a sample comprising at least one chemical element selected from the group comprising poor metals, alkaline earths, actinides, rare earths, transition metals, and combination thereof; - optionally a solvent; - an amine; - a sample comprising at least one chemical element selected from the group comprising poor metals, alkaline earths, actinides, rare earths, transition metals, and combination thereof; - optionally a solvent; b) the liquid phase L is contacted with a gas phase G comprising a gas selected from CO 2 , COS and CS 2 , under conditions resulting in the formation of a segmented flow, so as to form a third phase concentrating said chemical element, called "concentrated phase", suspended in a stock solution; c) the concentrated phase is separated from the stock solution.