mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light emitting display unit comprising: a first substrate ; a display region (AA) having a plurality of sub-pixels (SP) disposed on the first substrate ; a pad portion disposed on the first substrate outside of the display region (AA) for electrical connection to an external device; a plurality of lines disposed between the pad portion and the display region (AA) for transmitting a signal or power; an insulation layer disposed on the display region (AA) and on a portion of the lines outside of the display region (AA), wherein the insulation layer includes a first region covering a portion of the lines adjacent to the display region (AA) and a second region covering a portion of the lines adjacent to the pad portion , wherein the first region and the second region of the insulation layer are spaced apart from each other, and a moisture-transmission delay layer formed of an organic material and spaced apart from the insulation layer for forming a moisture-transmission delay space , wherein the moisture-transmission delay layer includes a plurality of patterns covering corresponding exposed edges of the plurality of lines exposed by the insulation layer and also covering a portion of the first substrate . a first substrate ; a display region (AA) having a plurality of sub-pixels (SP) disposed on the first substrate ; a pad portion disposed on the first substrate outside of the display region (AA) for electrical connection to an external device; a plurality of lines disposed between the pad portion and the display region (AA) for transmitting a signal or power; an insulation layer disposed on the display region (AA) and on a portion of the lines outside of the display region (AA), wherein the insulation layer includes a first region covering a portion of the lines adjacent to the display region (AA) and a second region covering a portion of the lines adjacent to the pad portion , wherein the first region and the second region of the insulation layer are spaced apart from each other, and a moisture-transmission delay layer formed of an organic material and spaced apart from the insulation layer for forming a moisture-transmission delay space , wherein the moisture-transmission delay layer includes a plurality of patterns covering corresponding exposed edges of the plurality of lines exposed by the insulation layer and also covering a portion of the first substrate .
An optical transceiver , comprising: a first angle adjusting unit having a first reflection region and a second reflection region ; an optical transmitter configured to transmit light to the first reflection region of the first angle adjusting unit ; an optical receiver configured to receive light from the second reflection region of the first angle adjusting unit ; a first light blocking member configured to separate a movement path of the transmitted light and a movement path of the received light; and a controller configured to transmit a signal controlling an operation of the first angle adjusting unit to the first angle adjusting unit , wherein the first angle adjusting unit includes: a reflector having the first reflection region and the second reflection region ; a first driving unit configured to transfer power to the reflector ; a first gear connected to the first driving unit ; and a second gear connected to the reflector and moving while being engaged with the first gear , characterized in that , the second gear includes a hole shaped like an arc, and a stopper installed in a frame of the optical transceiver crosses the arc-shaped hole. a first angle adjusting unit having a first reflection region and a second reflection region ; an optical transmitter configured to transmit light to the first reflection region of the first angle adjusting unit ; an optical receiver configured to receive light from the second reflection region of the first angle adjusting unit ; a first light blocking member configured to separate a movement path of the transmitted light and a movement path of the received light; and a controller configured to transmit a signal controlling an operation of the first angle adjusting unit to the first angle adjusting unit , wherein the first angle adjusting unit includes: a reflector having the first reflection region and the second reflection region ; a first driving unit configured to transfer power to the reflector ; a first gear connected to the first driving unit ; and a second gear connected to the reflector and moving while being engaged with the first gear , a reflector having the first reflection region and the second reflection region ; a first driving unit configured to transfer power to the reflector ; a first gear connected to the first driving unit ; and a second gear connected to the reflector and moving while being engaged with the first gear ,
A replaceable cartridge for an easy to carry perfuming device , comprising: a main body part ; a plurality of air flow channels provided in the main body part and having both ends that are open; and a fragrance material held in at least a part of an inner surface of the air flow channels ; wherein an inner diameter of the air flow channels has a value in the range of 10 to 1.000 μm, and characterized in that an outlet opening of the air flow channels has a tapered shape in which a diameter increases toward an opening end. a main body part ; a plurality of air flow channels provided in the main body part and having both ends that are open; and a fragrance material held in at least a part of an inner surface of the air flow channels ; wherein an inner diameter of the air flow channels has a value in the range of 10 to 1.000 μm, and characterized in that an outlet opening of the air flow channels has a tapered shape in which a diameter increases toward an opening end.
Apparatus comprising means configured to: receive at least two microphone audio signals; obtain spatial metadata, the spatial metadata being perceptually relevant spatial information from dynamic analysis of one or more frequency bands of the at least two microphone audio signals; and synthesize adaptively , for at least one, predetermined, order of spherical harmonic audio signals, spherical harmonic audio signals based on a first frequency band part of the at least two microphone audio signals and the spatial metadata; synthesize , for the least one order of spherical harmonic audio signals, spherical harmonic audio signals using linear operations for a second frequency band part of the at least two microphone audio signals; combine the adaptively synthesized and linear operations synthesized spherical harmonic audio signals to output a combined at least one, predetermined, order of spherical harmonic audio signals. receive at least two microphone audio signals; obtain spatial metadata, the spatial metadata being perceptually relevant spatial information from dynamic analysis of one or more frequency bands of the at least two microphone audio signals; and synthesize adaptively , for at least one, predetermined, order of spherical harmonic audio signals, spherical harmonic audio signals based on a first frequency band part of the at least two microphone audio signals and the spatial metadata; synthesize , for the least one order of spherical harmonic audio signals, spherical harmonic audio signals using linear operations for a second frequency band part of the at least two microphone audio signals; combine the adaptively synthesized and linear operations synthesized spherical harmonic audio signals to output a combined at least one, predetermined, order of spherical harmonic audio signals.
Device for welding under vacuum, having a bell- or hood-like welding cover having a circumferential side wall and a cavity delimited by the latter, wherein a circumferential free edge is provided, with which the welding cover can be placed on a flat surface, so that the cavity is surrounded by the flat surface and the circumferential wall and, optionally, a ceiling wall , characterized in that in the circumferential side wall there is at least one arrangement having a bore having a connection area for a fluid supply and a fluid outlet , wherein in the bore there is a constriction for producing a Venturi effect and there is also a transverse bore from the cavity into the bore in order to suck in gas from the cavity through the transverse bore via the Venturi effect to produce a vacuum. a ceiling wall , characterized in that in the circumferential side wall there is at least one arrangement having a bore having a connection area for a fluid supply and a fluid outlet , wherein in the bore there is a constriction for producing a Venturi effect and there is also a transverse bore from the cavity into the bore in order to suck in gas from the cavity through the transverse bore via the Venturi effect to produce a vacuum.
A turbomachine comprising: a bearing spring support and damping apparatus comprising: a first end portion ; a second end portion ; a flexible portion between the first end portion and the second end portion ; and an outer diameter groove in the second end portion ; a static structure having a mounting portion to which the first end portion is mounted; a shaft mounted to rotate relative to the static structure; a bearing having an inner race mounted to the shaft and having an outer race mounted to the second end portion ; and a seal carried by the groove and sealing with an inner diameter surface of a sealing portion of the static structure; wherein the bearing spring support and damping apparatus comprises a first piece and a second piece , wherein the first end portion is a first end portion of the first piece , the second end portion is a second end portion of the second piece , the first piece has a second end portion , the second piece has a first end portion fastened to the second end portion of the first piece , the flexible portion is a flexible portion of the first piece between the first piece first end portion and the first piece second end portion , and the outer diameter groove is the only outer diameter groove in the second end portion of the second piece . a bearing spring support and damping apparatus comprising: a first end portion ; a second end portion ; a flexible portion between the first end portion and the second end portion ; and an outer diameter groove in the second end portion ; a first end portion ; a second end portion ; a flexible portion between the first end portion and the second end portion ; and an outer diameter groove in the second end portion ; a static structure having a mounting portion to which the first end portion is mounted; a shaft mounted to rotate relative to the static structure; a bearing having an inner race mounted to the shaft and having an outer race mounted to the second end portion ; and a seal carried by the groove and sealing with an inner diameter surface of a sealing portion of the static structure; wherein the bearing spring support and damping apparatus comprises a first piece and a second piece , wherein the first end portion is a first end portion of the first piece , the second end portion is a second end portion of the second piece , the first piece has a second end portion , the second piece has a first end portion fastened to the second end portion of the first piece , the flexible portion is a flexible portion of the first piece between the first piece first end portion and the first piece second end portion , and the outer diameter groove is the only outer diameter groove in the second end portion of the second piece .
A method for data transmission in a handover process, wherein the method comprises: generating, by a source radio access network, RAN, device, a handover request message or a handover requirement message, wherein the handover request message or the handover requirement message comprises a mapping relationship between downlink transmission of a QoS flow and a DRB and a mapping relationship between uplink transmission of the QoS flow and a DRB that are configured by the source RAN device for a terminal device, and the mapping relationship between downlink transmission of the QoS flow and a DRB is different from the mapping relationship between uplink transmission of the QoS flow and a DRB; sending, by the source RAN device, the handover request message to a target RAN device, or sending the handover requirement message to a core network CN device; and forwarding, by the source RAN device, data of the terminal device on the source RAN device to the target RAN device in a process in which the terminal device is handed over from the source RAN device to the target RAN device; wherein the mapping relationship between downlink transmission of the QoS flow and a DRB comprises a QoS flow identifier, QFI, of the QoS flow and a DRB identifier, ID, of a first DRB to which the downlink transmission of the QoS flow is mapped; and the mapping relationship between uplink transmission of the QoS flow and a DRB comprises the QFI of the QoS flow and a DRB ID of a second DRB to which the uplink transmission of the QoS flow is mapped. generating, by a source radio access network, RAN, device, a handover request message or a handover requirement message, wherein the handover request message or the handover requirement message comprises a mapping relationship between downlink transmission of a QoS flow and a DRB and a mapping relationship between uplink transmission of the QoS flow and a DRB that are configured by the source RAN device for a terminal device, and the mapping relationship between downlink transmission of the QoS flow and a DRB is different from the mapping relationship between uplink transmission of the QoS flow and a DRB; sending, by the source RAN device, the handover request message to a target RAN device, or sending the handover requirement message to a core network CN device; and forwarding, by the source RAN device, data of the terminal device on the source RAN device to the target RAN device in a process in which the terminal device is handed over from the source RAN device to the target RAN device; wherein the mapping relationship between downlink transmission of the QoS flow and a DRB comprises a QoS flow identifier, QFI, of the QoS flow and a DRB identifier, ID, of a first DRB to which the downlink transmission of the QoS flow is mapped; and the mapping relationship between uplink transmission of the QoS flow and a DRB comprises the QFI of the QoS flow and a DRB ID of a second DRB to which the uplink transmission of the QoS flow is mapped.
A method of wireless communication, comprising: receiving, by a user equipment , UE, a configuration message including at least one list of cell specific reference signal, CRS, patterns for a component carrier, wherein a list of the at least one list is associated with a control resource set, CORESET, group; receiving, by the UE , a first message scheduling a first transmission associated with a first demodulation reference signal, DMRS, and for the component carrier; receiving, by the UE , a second message scheduling a second transmission associated with a second DMRS and for the component carrier; and modifying, by the UE , at least one DMRS symbol of the first DMRS or at least one DMRS symbol of the second DMRS based on the list being configured for the component carrier; wherein the first DMRS includes multiple DMRS symbols and wherein modifying the at least one DMRS symbol of the first DMRS or the second DMRS includes: incrementing a location value of each DMRS symbol of the multiple DMRS symbols of the first DMRS of the first transmission by one. receiving, by a user equipment , UE, a configuration message including at least one list of cell specific reference signal, CRS, patterns for a component carrier, wherein a list of the at least one list is associated with a control resource set, CORESET, group; receiving, by the UE , a first message scheduling a first transmission associated with a first demodulation reference signal, DMRS, and for the component carrier; receiving, by the UE , a second message scheduling a second transmission associated with a second DMRS and for the component carrier; and modifying, by the UE , at least one DMRS symbol of the first DMRS or at least one DMRS symbol of the second DMRS based on the list being configured for the component carrier; wherein the first DMRS includes multiple DMRS symbols and wherein modifying the at least one DMRS symbol of the first DMRS or the second DMRS includes: incrementing a location value of each DMRS symbol of the multiple DMRS symbols of the first DMRS of the first transmission by one.
Housing for an ultrasonic transducer , the housing comprising - a bottom wall , which is adapted to act as an oscillation membrane; and - an essentially cylindrical side wall extending from the bottom wall , wherein the side wall comprises an enhancement structure enhancing the elasticity of the cylindrical side wall - an annular projection protruding from the side wall at an end of the side wall opposing the bottom wall ; wherein the enhancement structure comprises a structural modification comprising at least one annular recess arranged at an outer surface and/or an inner surface of the side wall , characterized in that a distance between the at least one annular recess and the bottom wall corresponds to at least 10% of the distance between the bottom wall and the annular projection . - a bottom wall , which is adapted to act as an oscillation membrane; and - an essentially cylindrical side wall extending from the bottom wall , wherein the side wall comprises an enhancement structure enhancing the elasticity of the cylindrical side wall - an annular projection protruding from the side wall at an end of the side wall opposing the bottom wall ; wherein the enhancement structure comprises a structural modification comprising at least one annular recess arranged at an outer surface and/or an inner surface of the side wall , characterized in that a distance between the at least one annular recess and the bottom wall corresponds to at least 10% of the distance between the bottom wall and the annular projection .
A method of manipulating a feedback signal (S4) for a native feedback controller of an apparatus, the apparatus further comprising a remote controller retrofit to the native controller , the method comprising: sensing a controlled variable of a molding process of the apparatus at a sensor; generating a feedback signal (S4) by the sensor based upon the controlled variable; at the remote controller : receiving the feedback signal (S4); generating a control signal (C2) based upon the feedback signal (S4); combining the control signal (C2) and the feedback signal (S4) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the feedback signal (S4); and at the native controller , controlling operation of the actuation unit of the apparatus based at least in part upon the modified feedback signal (S6). sensing a controlled variable of a molding process of the apparatus at a sensor; generating a feedback signal (S4) by the sensor based upon the controlled variable; at the remote controller : receiving the feedback signal (S4); generating a control signal (C2) based upon the feedback signal (S4); combining the control signal (C2) and the feedback signal (S4) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the feedback signal (S4); and receiving the feedback signal (S4); generating a control signal (C2) based upon the feedback signal (S4); combining the control signal (C2) and the feedback signal (S4) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the feedback signal (S4); and at the native controller , controlling operation of the actuation unit of the apparatus based at least in part upon the modified feedback signal (S6).
A method performed by a packet data network gateway (PGW1), comprising: receiving , from a network entitiy, a create session request message to establish a packet data network, PDN, connection for a user equipment, UE, in an evolved packet system, EPS; retrieving , from a unified data management, UDM, a subscription for the UE; determining from the subscription that the packet data network gateway (PGW1) does not support a network slice for which the UE has a subscription; discovering another packet data network gateway (PGW2) that supports the network slice for which the UE has a subscription; and transmitting a session create response message to the network entity, the create session response message comprising an indication that there is a packet data network gateway (PGW1) mismatch with the network slice subscribed by the UE and an address of the another packet data network gateway (PGW2) that supports the network slice for which the UE has a subscription. receiving , from a network entitiy, a create session request message to establish a packet data network, PDN, connection for a user equipment, UE, in an evolved packet system, EPS; retrieving , from a unified data management, UDM, a subscription for the UE; determining from the subscription that the packet data network gateway (PGW1) does not support a network slice for which the UE has a subscription; discovering another packet data network gateway (PGW2) that supports the network slice for which the UE has a subscription; and transmitting a session create response message to the network entity, the create session response message comprising an indication that there is a packet data network gateway (PGW1) mismatch with the network slice subscribed by the UE and an address of the another packet data network gateway (PGW2) that supports the network slice for which the UE has a subscription.
Process for preparing polymers in the form of their aqueous polymer dispersions by means of free-radically initiated polymerization in a polymerization reactor equipped with an external cooling circuit having a pump and having at least one heat exchanger , characterized in that the heat exchanger installed is a shell and tube heat exchanger which is operated in such a way that the coolant is passed through the tubes of the tube aggregate and the polymerization mixture to be cooled is guided around the outside of the tubes of the tube aggregate.
A method for determining an outlet pressure (p ao ), in particular an aortic pressure, prevailing at an outlet of a heart assist system (1; 20) comprising a pump and a cannula connected thereto, wherein the method comprises the following steps: - determining an inlet pressure (p v ) which prevails at the inlet of the heart assist system; - determining a pump pressure difference (Δp) between the pump inlet and the pump outlet of the pump of the heart assist system; - estimating a pressure difference between the inlet and the outlet of the heart assist system based on the pump pressure difference (Δp) and an estimated cannula pressure difference (Δp c ); - determining the outlet pressure from the inlet pressure and the pressure difference. - determining an inlet pressure (p v ) which prevails at the inlet of the heart assist system; - determining a pump pressure difference (Δp) between the pump inlet and the pump outlet of the pump of the heart assist system; - estimating a pressure difference between the inlet and the outlet of the heart assist system based on the pump pressure difference (Δp) and an estimated cannula pressure difference (Δp c ); - determining the outlet pressure from the inlet pressure and the pressure difference.