mhurhangee/ep-ind-claims huggingface dataset:
A scanning apparatus, including a gantry (1164, 1072), a controller, a C-shaped arm, a radiation source (112, 712, 90), and a detector (113, 80), wherein the radiation source and the detector are arranged at both ends of the C-shaped arm, the gantry includes a robotic arm assembly, the robotic arm assembly has multi-degree-of-freedom, and the C-shape arm is rotatably arranged at one end of the robotic arm assembly, the C-shaped arm is connected to the gantry, and the controller is configured to control a motion of the gantry to drive the C-shaped arm to move so as to scan a target object, the scanning apparatus is a cone-beam computed tomography scanning apparatus, and the gantry has a deflection mode and a rotation mode, wherein in the deflection mode, the robotic arm assembly drives the radiation source and the detector to deflect around a center point of the detector, the center point of the detector is a geometric center point of the detector and remains unchanged during the deflection, in the rotation mode, the gantry drives the radiation source and the detector to rotate around a center of interest of a target object to scan the target object and obtain scanning data of the target object, the radiation source and the detector have a first reconstruction field of view before the deflection, the radiation source and the detector have a second reconstruction FOV after the deflection, and the second reconstruction FOV is larger than the first reconstruction FOV. the radiation source and the detector are arranged at both ends of the C-shaped arm, the gantry includes a robotic arm assembly, the robotic arm assembly has multi-degree-of-freedom, and the C-shape arm is rotatably arranged at one end of the robotic arm assembly, the C-shaped arm is connected to the gantry, and the controller is configured to control a motion of the gantry to drive the C-shaped arm to move so as to scan a target object, the scanning apparatus is a cone-beam computed tomography scanning apparatus, and the gantry has a deflection mode and a rotation mode, wherein in the deflection mode, the robotic arm assembly drives the radiation source and the detector to deflect around a center point of the detector, the center point of the detector is a geometric center point of the detector and remains unchanged during the deflection, in the rotation mode, the gantry drives the radiation source and the detector to rotate around a center of interest of a target object to scan the target object and obtain scanning data of the target object, the radiation source and the detector have a first reconstruction field of view before the deflection, the radiation source and the detector have a second reconstruction FOV after the deflection, and the second reconstruction FOV is larger than the first reconstruction FOV.
Communication system configured to control the output of an audio signal and installed in a vehicle, comprising at least one audio signal source configured to provide at least one audio signal; signal analyzing means configured to determine a content and a source of the audio signal based on the audio signal and to modify the audio signal to obtain a modified audio signal containing additional information; wherein the additional information comprises the determined content and source of the audio signal; signal processing means comprising an input for receiving the modified audio signal and an output for outputting at least one loudspeaker input signal, and configured to process the modified audio signal dependent on the determined content and source of the audio signal to obtain the at least one loudspeaker input signal based on the modified audio signal; and a loudspeaker system comprising at least one loudspeaker mounted in the vehicle and comprising an input for receiving the at least one loudspeaker input signal and an output for outputting at least one loudspeaker output signal based on the at least one loudspeaker input signal.
A method of forming a AA6082 alloy blank or a 7xxx series alloy blank, wherein the method comprises the steps of: heating the blank to a solutionization temperature (T SHT) for the alloy of the blank at a heating station and keeping the blank at said SHT temperature until SHT is complete, cooling the blank at a cooling station to an intermediate temperature (T ITM) and at a cooling rate that is high enough such that recrystallization in the alloy of the blank does not occur, wherein for a AA6082 alloy blank the intermediate temperature is between 300-350oC and the cooling rate is at least 30 K/s, and for a 7xxx series alloy blank the intermediate temperature is between 400-420oC and the cooling rate is at least 50 K/s, forming the blank in a forming tool, quenching the formed blank to room temperature (T E), pre-ageing the formed and quenched blank in a pre-ageing station within one hour of the quenching of the formed blank for a AA6082 alloy blank and within 30 minutes of the quenching of the formed blank for a 7xxx series alloy blank, in which pre-ageing the formed and quenched blank is heated to an ageing temperature (T A), kept at the ageing temperature during a time period, and cooled to room temperature. heating the blank to a solutionization temperature (T SHT) for the alloy of the blank at a heating station and keeping the blank at said SHT temperature until SHT is complete, cooling the blank at a cooling station to an intermediate temperature (T ITM) and at a cooling rate that is high enough such that recrystallization in the alloy of the blank does not occur, wherein for a AA6082 alloy blank the intermediate temperature is between 300-350oC and the cooling rate is at least 30 K/s, and for a 7xxx series alloy blank the intermediate temperature is between 400-420oC and the cooling rate is at least 50 K/s, forming the blank in a forming tool, quenching the formed blank to room temperature (T E), pre-ageing the formed and quenched blank in a pre-ageing station within one hour of the quenching of the formed blank for a AA6082 alloy blank and within 30 minutes of the quenching of the formed blank for a 7xxx series alloy blank, in which pre-ageing the formed and quenched blank is heated to an ageing temperature (T A), kept at the ageing temperature during a time period, and cooled to room temperature.
An oral care mouth rinse compositions comprising: (a) from 0.025 % to 0.1 % by weight of cetylpyridinium chloride as antimicrobial agent, (b) at least 0.05 % by weight of an essentially water-insoluble volatile flavor oil, (c) an orally-acceptable carrier comprising water at a level of least 50 % by weight of the composition, and (d) less than 0.1% total additional surfactant by weight of the composition, wherein the composition is a stable oil-in-water nano-emulsion having a dispersed phase comprising oil droplets having an average mean particle size of 30 to 350 nm, wherein the nano-emulsion does not form spontaneously, but requires energy input for formation, and are not thermodynamically stable once formed. (a) from 0.025 % to 0.1 % by weight of cetylpyridinium chloride as antimicrobial agent, (b) at least 0.05 % by weight of an essentially water-insoluble volatile flavor oil, (c) an orally-acceptable carrier comprising water at a level of least 50 % by weight of the composition, and (d) less than 0.1% total additional surfactant by weight of the composition,
Method of automatically detecting and analysing a start kick jerk of an elevator car, comprising a) determining an elevator run sequence by an elevator controller, b) measuring an elevator car movement with a sensor at a predetermined phase of the elevator run sequence by several of the following devices: a motor encoder; a door zone sensor for linear position; Z-direction accelerometer placed in the car, and c) calculating a car velocity and its acceleration and a jerk from the sensor reading to determine the start kick jerk from the sensor data, d) comparing the determination result with a pre-set criteria, and e) outputting the comparison result. a) determining an elevator run sequence by an elevator controller, b) measuring an elevator car movement with a sensor at a predetermined phase of the elevator run sequence by several of the following devices: a motor encoder; a door zone sensor for linear position; Z-direction accelerometer placed in the car, and c) calculating a car velocity and its acceleration and a jerk from the sensor reading to determine the start kick jerk from the sensor data, d) comparing the determination result with a pre-set criteria, and e) outputting the comparison result.
An insulin conjugate prepared by linking insulin with an immunoglobulin Fc region via a polyethylene glycol in which the polyethylene glycol is linked to the amino terminal of beta chain of insulin.
A paper bag for bulk material such as cement, gypsum, granular material, animal feed or the like, with a bottom and with an upper part opposite the bottom, wherein bottom and/or upper part are folded and glued by closing up the side parts around side fold lines, in particular in the form of a cross or block bottom, characterized in that for gluing the side parts several strip-like patches (11, 11') of gluing or bonding agent extending parallel to each other and activatable after the application are provided per corner tuck, which patches are applied continuously at least from one side fold line to at least the opposite side fold line of the side parts.
A method performed by a terminal (g-01, h-01) in a wireless communication system, the method comprising: receiving (g-05, h-05), from a base station (g-02, h-02), system information including a public land mobile network, PLMN, list, the PLMN list including at least one PLMN for each type of a core network, wherein a type of the core network is an evolved packet core, EPC, or a fifth generation, 5G, core, 5GC; selecting, by a non-access stratum, NAS, layer of the terminal (g-01, h-01), a core network type to be accessed by the terminal (g-01, h-01), based on the system information; transmitting (g-10, h-10), to the base station (g-02, h-02), a radio resource control, RRC, connection request message for the selected core network type; receiving (g-15, h-15), from the base station (g-02, h-02), an RRC connection setup message, as a response to the RRC connection request message;; transmitting (g-20, h-20), to the base station (g-02, h-02), an RRC connection setup complete message based on the RRC connection setup message, wherein the RRC connection setup complete message includes information on a network slice for the terminal (g-01, h-01), in case that the selected core network type is the 5GC; and receiving (i-30) from the base station, an RRC message after transmitting the RRC connection setup complete message, the RRC message including information for re-directing the terminal to another core network type. receiving (g-05, h-05), from a base station (g-02, h-02), system information including a public land mobile network, PLMN, list, the PLMN list including at least one PLMN for each type of a core network, wherein a type of the core network is an evolved packet core, EPC, or a fifth generation, 5G, core, 5GC; selecting, by a non-access stratum, NAS, layer of the terminal (g-01, h-01), a core network type to be accessed by the terminal (g-01, h-01), based on the system information; transmitting (g-10, h-10), to the base station (g-02, h-02), a radio resource control, RRC, connection request message for the selected core network type; receiving (g-15, h-15), from the base station (g-02, h-02), an RRC connection setup message, as a response to the RRC connection request message;; transmitting (g-20, h-20), to the base station (g-02, h-02), an RRC connection setup complete message based on the RRC connection setup message, wherein the RRC connection setup complete message includes information on a network slice for the terminal (g-01, h-01), in case that the selected core network type is the 5GC; and receiving (i-30) from the base station, an RRC message after transmitting the RRC connection setup complete message, the RRC message including information for re-directing the terminal to another core network type.
A child safety seat comprising: a seat shell having two sidewalls respectively provided at a left and a right side of the seat shell for restricting sideways movement of a child sitting on the seat shell, the two sidewalls including a first and a second sidewall; a buffering part movably connected with the seat shell, the buffering part being movable between a first position corresponding to a stowed state where the buffering part is retracted toward the first sidewall, and a second position corresponding to a deployed state where the buffering part protrudes sideways from the first sidewall; a retaining mechanism operable to hold the buffering part in the first position; and a release mechanism including an operating device that is disposed adjacent to a thigh region of the seat shell and is operatively connected with the retaining mechanism, the operating device being operable to release the buffering part from the hold of the retaining mechanism for movement of the buffering part from the first position to the second position; wherein the seat shell includes a backrest portion having a front surface, and the buffering part is connected with a portion of the first sidewall that is located in front of the front surface and is vertically adjacent to a child's seated shoulder height. a seat shell having two sidewalls respectively provided at a left and a right side of the seat shell for restricting sideways movement of a child sitting on the seat shell, the two sidewalls including a first and a second sidewall; a buffering part movably connected with the seat shell, the buffering part being movable between a first position corresponding to a stowed state where the buffering part is retracted toward the first sidewall, and a second position corresponding to a deployed state where the buffering part protrudes sideways from the first sidewall; a retaining mechanism operable to hold the buffering part in the first position; and a release mechanism including an operating device that is disposed adjacent to a thigh region of the seat shell and is operatively connected with the retaining mechanism, the operating device being operable to release the buffering part from the hold of the retaining mechanism for movement of the buffering part from the first position to the second position; wherein the seat shell includes a backrest portion having a front surface, and the buffering part is connected with a portion of the first sidewall that is located in front of the front surface and is vertically adjacent to a child's seated shoulder height.
A textile thread configured to enable fluid flow therethrough, the textile thread comprising an elongate member having a cavity portion therein, wherein a wall of the elongate member includes one or more ports therein, thereby providing a fluid flow path from the cavity portion through the wall of the elongate member, wherein one or more individual fibres are disposed around the elongate member having a depth, characterised in that the ports are defined by nodules extending outwardly generally perpendicular to the longitudinal length of the elongate member, wherein the nodules extend beyond the circumferential edge of the elongate member and extend through at least a portion of the depth of the one or more individual fibres wrapped around the elongate member.
A method of making a glass container with an optically readable graphic data carrier, which includes the steps of: (a) exposing a glass container to electromagnetic radiation to produce discoloration within the glass of the container, and then (b)directing focused beam energy at the glass container in a pattern corresponding to a desired graphic data carrier to heat the glass and selectively remove the discoloration produced in step (a) in the pattern corresponding to the desired graphic data carrier. (a) exposing a glass container to electromagnetic radiation to produce discoloration within the glass of the container, and then (b)directing focused beam energy at the glass container in a pattern corresponding to a desired graphic data carrier to heat the glass and selectively remove the discoloration produced in step (a) in the pattern corresponding to the desired graphic data carrier.
A heat treatment system comprising a heat treatment apparatus and a product transport system, wherein - the heat treatment apparatus comprises (i) a duct having a duct axis, wherein the duct is configured for holding a liquid, and (ii) an RF heating zone comprising a main electrode and a first counter electrode configured for functionally connecting to an RF generator to generate during operation a first electric field in the duct between the main electrode and the first counter electrode parallel to the duct axis, - the product transport system comprises an electric field guiding element comprising an electrically conductive material, wherein the electric field guiding element is configured to be electrically insulated from the electrodes (410, 420) during transport through the duct, - the product transport system is configured to transport a product and the electric field guiding element through the duct. - the heat treatment apparatus comprises (i) a duct having a duct axis, wherein the duct is configured for holding a liquid, and (ii) an RF heating zone comprising a main electrode and a first counter electrode configured for functionally connecting to an RF generator to generate during operation a first electric field in the duct between the main electrode and the first counter electrode parallel to the duct axis, - the product transport system comprises an electric field guiding element comprising an electrically conductive material, wherein the electric field guiding element is configured to be electrically insulated from the electrodes (410, 420) during transport through the duct, - the product transport system is configured to transport a product and the electric field guiding element through the duct.
A method, comprising: receiving a registration message from a user equipment, wherein the registration message is for requesting registration of the user equipment with a control entity in a communication system; after receiving the registration message, setting a time length of a security association between the user equipment and the control entity to be equal to a registration time length set for a registration of the user equipment with the control entity; in response to the registration message, transmitting an authentication challenge comprising a temporary timer to the user equipment, preceding an acknowledgment message, which sets a time duration for the user equipment to respond to the authentication challenge, receiving a response message from the user equipment and determining if the user equipment has responded within the set time duration for the user equipment to respond to the authentication challenge, and if the user equipment has responded within the set time duration, transmitting the set time length of the security association to the user equipment as part of the acknowledgment message to the registration message to cause the security association to have a time length equal to the registration time length; wherein communications between the user equipment and the communication system are configured to use a session initiation protocol, and wherein the registration message comprises a session initiation protocol register request message and the acknowledgment message comprises a session initiation protocol response message. receiving a registration message from a user equipment, wherein the registration message is for requesting registration of the user equipment with a control entity in a communication system; after receiving the registration message, setting a time length of a security association between the user equipment and the control entity to be equal to a registration time length set for a registration of the user equipment with the control entity; in response to the registration message, transmitting an authentication challenge comprising a temporary timer to the user equipment, preceding an acknowledgment message, which sets a time duration for the user equipment to respond to the authentication challenge, receiving a response message from the user equipment and determining if the user equipment has responded within the set time duration for the user equipment to respond to the authentication challenge, and if the user equipment has responded within the set time duration, transmitting the set time length of the security association to the user equipment as part of the acknowledgment message to the registration message to cause the security association to have a time length equal to the registration time length; wherein communications between the user equipment and the communication system are configured to use a session initiation protocol, and wherein the registration message comprises a session initiation protocol register request message and the acknowledgment message comprises a session initiation protocol response message.
A device for diverting emboli (17, 18, 20) from cerebral circulation of a patient, comprising a first longitudinal carotid expandable member that is configured to expand from a non-expanded configuration to an expanded configuration, and a second longitudinal carotid expandable member that is configured to expand from a non-expanded configuration to an expanded configuration, wherein the device has a central axis, and is configured to expand around at least part of the neck of the patient, wherein the first and second longitudinal carotid members (27, 46) are configured to be located at the neck of the patient and to overlie respective first and second carotid arteries of the patient, wherein the first and second longitudinal carotid expandable members (27, 46) are configured to be closer to the central axis when in the expanded configuration than when in the non-expanded configuration, and wherein when the first and second longitudinal carotid expandable members (27,46) are in the expanded configurations they are configured to create areas of compression of the two carotid arteries of the patient and restrict blood flow through the two carotid arteries, characterised in that the device further comprises a transverse carotid expandable member that is configured to expand from a non-expanded configuration to an expanded configuration, in that the transverse carotid expandable member is configured to be closer to the central axis when in the expanded configuration than when in the non-expanded configuration; in that both the first and second longitudinal carotid expandable members (27, 46) are configured to be closer to the central axis when in their respective expanded configurations than the transverse carotid expandable member when the transverse carotid expandable member is in its expanded configuration, and in that the first and second longitudinal expandable members (27, 46) are both configured to be located between the first and second carotid arteries and the transverse carotid expandable member.
Trailer coupling with a holder (12a-12g) for attaching to a motor vehicle, in particular a car, with a coupling arm (11a-11m), insertable in a direction of insertion in a socket of the holder (12a-12g) for attaching a trailer, and with a locking device (20a-20g), fitted in particular to the holder (12a-12g), with a locking drive (21a-21g), having a locking motor and switchable by means of a drive switch (100a, 100b) for actuation of the locking device (20a-20g) between a locked position in which the coupling arm (11a-11m) is locked to the holder (12a-12g) and an unlocked position in which the coupling arm (11a-11m) is unlocked for removal from the holder (12a-12g), characterised in that it has for actuation of the drive switch (100a, 100b) an actuating element (101a, 101b) with a control area located in an outer area of the motor vehicle close to the socket.