mhurhangee/patent-ind-claim-en huggingface dataset:
A case for an aerosol-generating device , the case comprising: a housing ; a holder for receiving a portion of an aerosol-generating device , the holder being movably couplable to the housing and movable relative to the housing between an open position for receiving an aerosol-generating device and a closed position for storing an aerosol-generating device ; and a holder position detector adapted to detect whether the holder is in the open position or the closed position, wherein the holder position detector comprises circuitry adapted to determine the position of the holder relative to the housing and the case further comprises: a power supply ; an electrical connector configured to electrically connect the power supply to an aerosol-generating device received in the holder ; and power supply control circuitry configured to control the supply of power from the power supply to an aerosol-generating device received in the holder and connected to the electrical connector . a housing ; a holder for receiving a portion of an aerosol-generating device , the holder being movably couplable to the housing and movable relative to the housing between an open position for receiving an aerosol-generating device and a closed position for storing an aerosol-generating device ; and a holder position detector adapted to detect whether the holder is in the open position or the closed position, wherein the holder position detector comprises circuitry adapted to determine the position of the holder relative to the housing and the case further comprises: a power supply ; an electrical connector configured to electrically connect the power supply to an aerosol-generating device received in the holder ; and power supply control circuitry configured to control the supply of power from the power supply to an aerosol-generating device received in the holder and connected to the electrical connector . a power supply ; an electrical connector configured to electrically connect the power supply to an aerosol-generating device received in the holder ; and power supply control circuitry configured to control the supply of power from the power supply to an aerosol-generating device received in the holder and connected to the electrical connector .
A composite liftgate system , comprising: an inner panel formed of a structural thermoplastic composite material; an outer panel connected to the inner panel through the use of structural adhesive , the outer panel having a show surface; at least one structural channel comprising: a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel ; at least one second channel , where the at least one first channel is formed in the at least one second channel ; and at least one first pair of channels extending substantially in diagonal directions; and a plurality of structural reinforcement ribs molded into the inner panel to manage loading paths applied to the inner panel , wherein at least a first plurality of the structural reinforcement ribs is connected to the first pair of channels ; and a second plurality of the structural reinforcement ribs is connected to the opposite side of the first pair of channels ; and a plurality of brackets connected to the inner panel through the use of structural adhesive to add structure and strength where needed in predetermined locations. an inner panel formed of a structural thermoplastic composite material; an outer panel connected to the inner panel through the use of structural adhesive , the outer panel having a show surface; at least one structural channel comprising: a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel ; at least one second channel , where the at least one first channel is formed in the at least one second channel ; and at least one first pair of channels extending substantially in diagonal directions; and a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel ; at least one second channel , where the at least one first channel is formed in the at least one second channel ; and at least one first pair of channels extending substantially in diagonal directions; and a plurality of structural reinforcement ribs molded into the inner panel to manage loading paths applied to the inner panel , wherein at least a first plurality of the structural reinforcement ribs is connected to the first pair of channels ; and a second plurality of the structural reinforcement ribs is connected to the opposite side of the first pair of channels ; and a plurality of brackets connected to the inner panel through the use of structural adhesive to add structure and strength where needed in predetermined locations.
An electric circuit arrangement for the functional testing of a monitoring device for a power supply system , the electric circuit arrangement having a test resistance (R f1 , R f2 ) which is switched between an active conductor (L 1 , L 2 ) of the power supply system and ground (PE) and has a settable actual resistance value (R x ), having a bidirectional cascade consisting of field-effect transistors as test resistances (R f1 , R f2 ) and by an analog control for the continuous-value setting of the actual resistance value (R x ) to a predeterminable target resistance value (R 0 ), the control comprising a transformation block which transforms the predeterminable target resistance value (R 0 ) to a target voltage (U 0 ) as a reference variable by means of an actual current (I x ); a current measurement which detects a transistor current (I m ) flowing through the transistor cascade and supplies the transistor current (I m ) to the transformation block in a scaled manner as the actual current (I x ); a comparison element which compares the target voltage (U 0 ) to an actual voltage (U x ) and forms a differential voltage (U d ) as a control deviation; a voltage measurement which detects a transistor voltage (U m ) dropping via the transistor cascade and supplies the transistor voltage (U m ) to the comparison element in a scaled manner as the actual voltage (U x ); a controller which generates an actuating variable (W) from the differential voltage (U d ) for controlling a control path which is formed by the transistor cascade having the resistance value as a control variable (R x ); characterized by a controllable switch device which switches the actual voltage (U x ) to zero to shut down the control and causes a soft shutoff and switching of the test resistance (R f1 , R f2 ). a transformation block which transforms the predeterminable target resistance value (R 0 ) to a target voltage (U 0 ) as a reference variable by means of an actual current (I x ); a current measurement which detects a transistor current (I m ) flowing through the transistor cascade and supplies the transistor current (I m ) to the transformation block in a scaled manner as the actual current (I x ); a comparison element which compares the target voltage (U 0 ) to an actual voltage (U x ) and forms a differential voltage (U d ) as a control deviation; a voltage measurement which detects a transistor voltage (U m ) dropping via the transistor cascade and supplies the transistor voltage (U m ) to the comparison element in a scaled manner as the actual voltage (U x ); a controller which generates an actuating variable (W) from the differential voltage (U d ) for controlling a control path which is formed by the transistor cascade having the resistance value as a control variable (R x ); characterized by a controllable switch device which switches the actual voltage (U x ) to zero to shut down the control and causes a soft shutoff and switching of the test resistance (R f1 , R f2 ).
A gas turbine engine blade comprising: a platform arranged between a root and an airfoil , a cooling passage (92;94) extending from the root through the platform to the airfoil , the cooling passage (92;94) including an inlet passage (96;108) that splits into first and second branches (102,104; 112,114) that rejoin one another in a platform passage (106;116) arranged in the platform , and an airfoil passage (98;110) extending from the platform passage (106;116) and arranged in the platform , wherein the first and second branches are formed by a casting process, characterised in that the inlet passage (96;108) splits in a circumferential direction into the first and second branches (102;104;112;114). a platform arranged between a root and an airfoil , a cooling passage (92;94) extending from the root through the platform to the airfoil , the cooling passage (92;94) including an inlet passage (96;108) that splits into first and second branches (102,104; 112,114) that rejoin one another in a platform passage (106;116) arranged in the platform , and an airfoil passage (98;110) extending from the platform passage (106;116) and arranged in the platform , wherein the first and second branches are formed by a casting process, characterised in that the inlet passage (96;108) splits in a circumferential direction into the first and second branches (102;104;112;114).
A plate comprising: a current collector ; an intermediate layer layered on the current collector ; and an active material layer layered on the intermediate layer , wherein the intermediate layer contains electrically conductive particles, electrically insulating particles, and an aggregation inhibitor for adjusting aggregation of the electrically insulating particles, wherein the aggregation inhibitor is an anionic surfactant, a cationic surfactant, a bipolar surfactant, a non-ionic surfactant, or a polymer surfactant, wherein at least a portion of an end edge of the intermediate layer is not covered with the active material layer , and wherein the intermediate layer has a higher mass content of the electrically insulating particles in a region not covered with the active material layer than a mass content of the electrically insulating particles in a region covered with the active material layer , and wherein a mass content of the electrically conductive particles in the whole intermediate layer is 3% by mass or more, a mass content of the electrically insulating particles in the whole intermediate layer is 40% by mass or more, and a mass content of the aggregation inhibitor in the whole intermediate layer is 0.5% by mass or more. a current collector ; an intermediate layer layered on the current collector ; and an active material layer layered on the intermediate layer , wherein the intermediate layer contains electrically conductive particles, electrically insulating particles, and an aggregation inhibitor for adjusting aggregation of the electrically insulating particles, wherein the aggregation inhibitor is an anionic surfactant, a cationic surfactant, a bipolar surfactant, a non-ionic surfactant, or a polymer surfactant, wherein at least a portion of an end edge of the intermediate layer is not covered with the active material layer , and wherein the intermediate layer has a higher mass content of the electrically insulating particles in a region not covered with the active material layer than a mass content of the electrically insulating particles in a region covered with the active material layer , and wherein a mass content of the electrically conductive particles in the whole intermediate layer is 3% by mass or more, a mass content of the electrically insulating particles in the whole intermediate layer is 40% by mass or more, and a mass content of the aggregation inhibitor in the whole intermediate layer is 0.5% by mass or more.
A phased-array flaw-detection device comprising: a phased-array probe having a plurality of ultrasonic transducers which are separated in a concentric circle pattern, separated in rows that are orthogonal to a reference line (L) that passes through the center (O) of circles, and positioned line symmetrically with respect to the reference line (L); and a controller having a plurality of control channels , characterized in that the controller is configured to simultaneously excite pairs of the ultrasonic transducers that are line symmetrical with respect to the reference line (L) at the same phase. a phased-array probe having a plurality of ultrasonic transducers which are separated in a concentric circle pattern, separated in rows that are orthogonal to a reference line (L) that passes through the center (O) of circles, and positioned line symmetrically with respect to the reference line (L); and a controller having a plurality of control channels , characterized in that the controller is configured to simultaneously excite pairs of the ultrasonic transducers that are line symmetrical with respect to the reference line (L) at the same phase.
Electric motor for a drive unit of a drive train test bench, comprising a housing , the housing having at least one yoke for supporting the electric motor , the electric motor having at least one front yoke and one rear yoke , the yoke arms of which extend away from the electric motor in each case in a radial-lateral manner, the front yoke and the rear yoke being spaced apart axially from one another and being arranged in each case in the region of bearings of the electric motor , the at least one front yoke and rear yoke having a fluid bearing cooling means, and the electric motor being configured to reach rotational speeds of more than 25 000 rpm.
Knife holder comprising - a casing , - a holding device intended to receive knives, and - a sharpening system intended to sharpen a blade of said knives, said sharpening system comprising a base and at least one sharpening member which is integral with the base , the base being movable with respect to the casing between a storage position wherein the base is inside the casing and a gripping position wherein the base partially exits from the casing , the base being held to the sharpening system by at least one magnetic element , characterised in that the base can be separated from the knife holder without a physical link when it is in its gripping position to perform an operation of sharpening the blade. - a casing , - a holding device intended to receive knives, and - a sharpening system intended to sharpen a blade of said knives, said sharpening system comprising a base and at least one sharpening member which is integral with the base , the base being movable with respect to the casing between a storage position wherein the base is inside the casing and a gripping position wherein the base partially exits from the casing ,
Sliding brush for a slipring comprising a contact section comprising a metal wire or metal sheet and having a first end for holding the wire brush and opposing thereto a second end , characterized in, that a stabilizer arm is extending from the second end , the stabilizer arm further holding a friction section which is in friction contact with the contact section at a friction contact area .
A first wireless LAN device for transmitting moving images to a second wireless LAN device , comprising: means for setting a second maximum detection number parameter as Wi-Fi Display, WFD, parameter for requesting a second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER request transmitted in a process of a capability negotiation according to WFD standard; means for receiving the second maximum detection number parameter and an associated value indicating the second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER response to the M3 GET_PARAMETER request; and means for setting a multi touch number that is equal or under both the second maximum detection number of the second wireless LAN device and a first maximum detection number of the first wireless LAN device and notifying the second wireless LAN device of the set multi touch number in a M4 or M14 SET_PARAMETER request, the first maximum detection number representing the maximum number of simultaneous touch operations, which the first wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the first wireless LAN device, and the second maximum detection number representing the maximum number of simultaneous touch operations, which the second wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the second wireless LAN device. means for setting a second maximum detection number parameter as Wi-Fi Display, WFD, parameter for requesting a second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER request transmitted in a process of a capability negotiation according to WFD standard; means for receiving the second maximum detection number parameter and an associated value indicating the second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER response to the M3 GET_PARAMETER request; and means for setting a multi touch number that is equal or under both the second maximum detection number of the second wireless LAN device and a first maximum detection number of the first wireless LAN device and notifying the second wireless LAN device of the set multi touch number in a M4 or M14 SET_PARAMETER request, the first maximum detection number representing the maximum number of simultaneous touch operations, which the first wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the first wireless LAN device, and the second maximum detection number representing the maximum number of simultaneous touch operations, which the second wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the second wireless LAN device.
A method for supporting positioning measurements, comprising: designating a base station cell of a Long Term Evolution, LTE, system as a reference cell; and transmitting reference cell information associated with the reference cell and non-reference cell information associated with a non-reference cell to a wireless transmit/receive unit, WTRU, for use by the WTRU in performing positioning measurements with respect to the reference cell and the non-reference cell, wherein: the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth. designating a base station cell of a Long Term Evolution, LTE, system as a reference cell; and transmitting reference cell information associated with the reference cell and non-reference cell information associated with a non-reference cell to a wireless transmit/receive unit, WTRU, for use by the WTRU in performing positioning measurements with respect to the reference cell and the non-reference cell, wherein: the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth. the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth.
A method for inspecting an adhesive pattern on a substrate , comprising the steps of: - providing reference data representing a desired adhesive pattern into a controller ; - providing a stored and pre-determined tolerance range for the desired adhesive pattern in the controller ; - receiving a discharge signal from a control unit of a nozzle for discharging the adhesive at the controller ; - determining by the controller the desired pattern based on the received discharge signal ; - detecting if a change in the discharge signal occurs or if the discharge signal is detected for the first time; - in case that the controller detects a change in the discharge signal , or that the discharge signal is detected for the first time, setting the tolerance range for the desired pattern to a predetermined learning range; - discharging an adhesive bead onto a substrate from the nozzle ; - detecting a pattern of the discharged adhesive bead on the substrate when the substrate moves, by means of a sensor arrangement ; - receiving signals representing the detected pattern from the sensor arrangement at the controller ; - comparing said signals representing the detected adhesive pattern with the tolerance range of the desired adhesive pattern. - providing reference data representing a desired adhesive pattern into a controller ; - providing a stored and pre-determined tolerance range for the desired adhesive pattern in the controller ; - receiving a discharge signal from a control unit of a nozzle for discharging the adhesive at the controller ; - determining by the controller the desired pattern based on the received discharge signal ; - detecting if a change in the discharge signal occurs or if the discharge signal is detected for the first time; - in case that the controller detects a change in the discharge signal , or that the discharge signal is detected for the first time, setting the tolerance range for the desired pattern to a predetermined learning range; - discharging an adhesive bead onto a substrate from the nozzle ; - detecting a pattern of the discharged adhesive bead on the substrate when the substrate moves, by means of a sensor arrangement ; - receiving signals representing the detected pattern from the sensor arrangement at the controller ; - comparing said signals representing the detected adhesive pattern with the tolerance range of the desired adhesive pattern.