mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming chewing gum, the method comprising: providing a pair of rollers including a first roller and a second roller; moving a gum mass having a non-uniform thickness from a hopper toward a gap between said rollers in a direction of flow; and sizing the gum mass into a substantially continuous and flat gum sheet having a substantially uniform thickness between 0.3 mm to 10 mm via said pair of rollers, wherein said sizing via said pair of rollers pulls the gum mass towards and through a gap between said pair of rollers and said sizing causes 30 to 75% of a cross-sectional area of the gum mass between the gap and the hopper to be deflected in a reverse directional flow, said 30 to 75% of said cross-sectional area of the gum mass to be deflected occurring at an interior of the gum mass; where the reverse directional flow is measured at a location along a gap center line where the separation between the rollers is 10 to 50 times the gap width. providing a pair of rollers including a first roller and a second roller; moving a gum mass having a non-uniform thickness from a hopper toward a gap between said rollers in a direction of flow; and sizing the gum mass into a substantially continuous and flat gum sheet having a substantially uniform thickness between 0.3 mm to 10 mm via said pair of rollers, wherein said sizing via said pair of rollers pulls the gum mass towards and through a gap between said pair of rollers and said sizing causes 30 to 75% of a cross-sectional area of the gum mass between the gap and the hopper to be deflected in a reverse directional flow, said 30 to 75% of said cross-sectional area of the gum mass to be deflected occurring at an interior of the gum mass; where the reverse directional flow is measured at a location along a gap center line where the separation between the rollers is 10 to 50 times the gap width.
A base station comprising: at least one transceiver ; and at least one processor configured to: configure a set of large-scale channel properties based on information related to at least one of time density or frequency density of a channel state information-reference signal, CSI-RS, configuration; transmit information of the set of large-scale channel properties to a user equipment, UE, via the at least one transceiver, by a radio resource control, RRC, signaling; and transmit a demodulation reference signal, DM-RS, of a physical downlink shared channel, PDSCH, to the UE via the at least one transceiver, wherein the DM-RS of the PDSCH and an antenna port of a CSI-RS of the CSI-RS configuration are quasi co-located according to the set of large-scale channel properties. at least one transceiver ; and at least one processor configured to: configure a set of large-scale channel properties based on information related to at least one of time density or frequency density of a channel state information-reference signal, CSI-RS, configuration; transmit information of the set of large-scale channel properties to a user equipment, UE, via the at least one transceiver, by a radio resource control, RRC, signaling; and transmit a demodulation reference signal, DM-RS, of a physical downlink shared channel, PDSCH, to the UE via the at least one transceiver, configure a set of large-scale channel properties based on information related to at least one of time density or frequency density of a channel state information-reference signal, CSI-RS, configuration; transmit information of the set of large-scale channel properties to a user equipment, UE, via the at least one transceiver, by a radio resource control, RRC, signaling; and transmit a demodulation reference signal, DM-RS, of a physical downlink shared channel, PDSCH, to the UE via the at least one transceiver, wherein the DM-RS of the PDSCH and an antenna port of a CSI-RS of the CSI-RS configuration are quasi co-located according to the set of large-scale channel properties.
Low-noise current source, configured to be supplied by at least one DC supply ( V ss ) and to deliver an output current ( I L ), the source comprising one or more current generator modules (G 1 , G 2 , ... G N ) operating in parallel each one of which is configured to deliver a respective output current ( I i ), whereby the output current ( I L ) of the source is equal to the sum of the output currents ( I i ) of said one or more current generator modules (G 1 , G 2 , ... G N ), each current generator module (G 1 ; G 2 ; ... G N ) comprising a regulator component (Q1), configured to deliver the output current ( I i ) of the current generator module (G 1 ; G 2 ; ... G N ), a sensing resistor ( R s ) connected in series to the regulator component (Q1), and an error amplifier stage (IC1), configured to compare a reference voltage ( V ref ) with a voltage drop ( V s ) across the sensing resistor ( R s ), whereby the error amplifier stage (IC1) is configured to amplify an error signal equal to a difference between the reference voltage ( V ref ) and voltage across the sensing resistor ( R s ), the error amplifier stage (IC1) being configured to output the amplified error signal that is configured to control the regulator component (Q1), wherein each current generator module (G 1 ; G 2 ; ... G N ) further comprises a first shunt type regulator (Z1, I1), configured to be connected to said at least one DC supply ( V ss ), that is further configured to generate a dedicated supply voltage supplying the error amplifier stage (IC1), whereby the error amplifier stage (IC1) is configured to be supplied in a floating manner with respect to said at least one DC supply ( V ss ), the current source being characterised in that each current generator module (G 1 ; G 2 ; ... G N ) further comprises a second shunt type regulator (Z2, 12), configured to be connected to said at least one DC supply ( V ss ), that is further configured to generate a second reference voltage ( V c ) on one end of the sensing resistor ( R s ) not connected to the regulator component (Q1).
A device for three-dimensional scanning of an object, said device comprising: - detection means adapted to obtain orientation information of said device ; - optical means adapted to obtain planar information about a position of said device in a first reference plane of said optical means which remains constantly in contact with and tangential to the acquisition surface of said object, said optical means comprising an optical sensor having two orthogonal sensitivity axes, which detects said planar information through the position variations on two dimensions due to sliding of the device on the object surface, by comparing homologous points of two successively acquired frames of the object surface; - processing means adapted to acquire said orientation information and said planar information from said detection means and from said optical means , respectively, and to process such information in order to obtain an estimate of a position of said device on an axis substantially perpendicular to said first reference plane, to obtain a three-dimensional tracking of the movements of the device and to obtain a three-dimensional representation of said object based on said tracked movements of the device . - detection means adapted to obtain orientation information of said device ; - optical means adapted to obtain planar information about a position of said device in a first reference plane of said optical means which remains constantly in contact with and tangential to the acquisition surface of said object, said optical means comprising an optical sensor having two orthogonal sensitivity axes, which detects said planar information through the position variations on two dimensions due to sliding of the device on the object surface, by comparing homologous points of two successively acquired frames of the object surface; - processing means adapted to acquire said orientation information and said planar information from said detection means and from said optical means , respectively, and to process such information in order to obtain an estimate of a position of said device on an axis substantially perpendicular to said first reference plane, to obtain a three-dimensional tracking of the movements of the device and to obtain a three-dimensional representation of said object based on said tracked movements of the device .
Cable , with a guide element and with a signal line , the guide element extending flatwise in a guide plane (F), wherein the signal line is guided in the guide plane (F) along a winding path (P) by means of the guide element , wherein the signal line has a plurality of bends in the guide plane (F), wherein the guide element has a guide contour (K) which defines the course of the path (P) and to which the signal line is attached, so that a forced guidance for the signal line is predetermined, the guide element having a number of moulded parts which form the guide contour (K), characterized in that the signal line is a loose tube, with an outer tube and signal cores which run inside the outer tube , the outer tube having an inner diameter that is greater than a total diameter of the signal cores , so that there is room for movement for said signal cores.
A circulatory organ function calculation device comprising: a constriction unit configured to constrict a measurement subject part of a measurement subject; a pressure detection unit that detects constriction pressure generated by the constriction unit; a pressure control unit that varies the constriction pressure; a pulse wave detection unit that detects pulse waves based on an output signal from the pressure detection unit during a constriction pressure varying process performed by the pressure control unit; and characterized by a characteristic quantity calculation unit that: generates cumulatively added pulse wave values by cumulatively adding an area of the pulse waves which respectively correspond to constricting pressures, calculates cumulative addition ratios by normalizing the cumulatively added pulse wave values, and substitutes the cumulative addition ratios into an equation including variables and coefficients that are obtained in advance through a multivariate analysis. a constriction unit configured to constrict a measurement subject part of a measurement subject; a pressure detection unit that detects constriction pressure generated by the constriction unit; a pressure control unit that varies the constriction pressure; a pulse wave detection unit that detects pulse waves based on an output signal from the pressure detection unit during a constriction pressure varying process performed by the pressure control unit; and characterized by a characteristic quantity calculation unit that: generates cumulatively added pulse wave values by cumulatively adding an area of the pulse waves which respectively correspond to constricting pressures, calculates cumulative addition ratios by normalizing the cumulatively added pulse wave values, and substitutes the cumulative addition ratios into an equation including variables and coefficients that are obtained in advance through a multivariate analysis.
A broadband digital trunking service implementation method, said method comprising: a trunking scheduling management center receiving a trunking call establishment request carrying group information; said trunking scheduling management center sending a network side a creating trunking bearer request carrying call information and a transmission bearer address according to said trunking call establishment request; characterized in that : wherein said trunking scheduling management center sending said network side said creating trunking bearer request carrying said call information and said transmission bearer address based on said trunking call establishment request, comprising: said trunking scheduling management center, according to said group information carried in said trunking call establishment request, determining a playback feature of single call or group call of a trunking service at said network side and attributes of a user's role in said single call or group call of said trunking service, and sending said network side said creating trunking bearer request carrying said call information and said transmission bearer address; wherein the playback feature comprises a unicast or multicast mode, the attributes of the user's role comprise whether the user is a calling or called party. a trunking scheduling management center receiving a trunking call establishment request carrying group information; said trunking scheduling management center sending a network side a creating trunking bearer request carrying call information and a transmission bearer address according to said trunking call establishment request; characterized in that : wherein said trunking scheduling management center sending said network side said creating trunking bearer request carrying said call information and said transmission bearer address based on said trunking call establishment request, comprising: said trunking scheduling management center, according to said group information carried in said trunking call establishment request, determining a playback feature of single call or group call of a trunking service at said network side and attributes of a user's role in said single call or group call of said trunking service, and sending said network side said creating trunking bearer request carrying said call information and said transmission bearer address; wherein the playback feature comprises a unicast or multicast mode, the attributes of the user's role comprise whether the user is a calling or called party. said trunking scheduling management center, according to said group information carried in said trunking call establishment request, determining a playback feature of single call or group call of a trunking service at said network side and attributes of a user's role in said single call or group call of said trunking service, and sending said network side said creating trunking bearer request carrying said call information and said transmission bearer address; wherein the playback feature comprises a unicast or multicast mode, the attributes of the user's role comprise whether the user is a calling or called party.
Air vent for ventilating an interior of a motor vehicle, comprising a housing through which air can flow in order to ventilate the interior , a flow body arranged in the housing and around which air can flow, and a guide flap arranged upstream of the flow body and movable relative to the housing and relative to the flow body , by means of which guide flap an outflow direction in which the air flows out of the air vent is adjustable, the flow body being translationally movable relative to the housing , as a result of which a flow cross-section (Q) of the air vent through which air can flow and which is arranged in the housing is adjustable, the air being able to flow through the housing in a flow direction , at least upstream of the guide flap , in order to ventilate the interior , characterized in that the guide flap is rotatable, relative to at least one housing part of the housing and relative to the flow body , about an axis of rotation (D) coinciding with the flow direction in order to thereby adjust the outflow direction .
A servo actuator, comprising: a servo micro control unit, MCU, ; a first interface coupled to the servo MCU via a bus (L1); a second interface coupled to the first interface and the servo MCU via the bus; a first servo switch (k1) connected between the first interface and the servo MCU configured to turn on or off the first interface ; a second servo switch (k2) connected between the second interface and the servo MCU configured to turn on or off the second interface; a first connection line connected between the first interface and the servo MCU ; and a second connection line connected between the second interface and the servo MCU , wherein the servo MCU is configured to: control the first servo switch (k1) and the second servo switch (k2); and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch (k1) and the second servo switch (k2) are turned off. a servo micro control unit, MCU, ; a first interface coupled to the servo MCU via a bus (L1); a second interface coupled to the first interface and the servo MCU via the bus; a first servo switch (k1) connected between the first interface and the servo MCU configured to turn on or off the first interface ; a second servo switch (k2) connected between the second interface and the servo MCU configured to turn on or off the second interface; a first connection line connected between the first interface and the servo MCU ; and a second connection line connected between the second interface and the servo MCU , wherein the servo MCU is configured to: control the first servo switch (k1) and the second servo switch (k2); and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch (k1) and the second servo switch (k2) are turned off. control the first servo switch (k1) and the second servo switch (k2); and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch (k1) and the second servo switch (k2) are turned off.
An unlocking and locking system for a device, the device comprising a device component that is actuatable to lock and unlock the device, the unlocking and locking system comprising: a locking mechanism which is, in use, positioned in the device and comprises a first support structure that comprises an integration element that is adapted to mechanically engage the device component , and at least two magnetized regions in the first support structure; an unlocking mechanism comprising a second support structure, wherein the second support structure comprises a respective magnetized region for each magnetized region in the first support structure; wherein the magnetized regions in the first and second support structures are adapted such that when the second support structure is within a predetermined distance from the first support structure a magnetic attractive or repulsive force moves the locking mechanism by a sufficient distance to actuate the device component, wherein the device comprises a firearm and the locking mechanism is, in use, positioned in the firearm, and wherein the second support structure comprises a wearable component, characterized in that the wearable component comprises a glove adapted to be worn by a user, wherein the repulsive or attractive magnetic force that moves the locking mechanism is generated when a user holds the firearm while wearing the glove . a locking mechanism which is, in use, positioned in the device and comprises a first support structure that comprises an integration element that is adapted to mechanically engage the device component , and at least two magnetized regions in the first support structure; an unlocking mechanism comprising a second support structure, wherein the second support structure comprises a respective magnetized region for each magnetized region in the first support structure; wherein the magnetized regions in the first and second support structures are adapted such that when the second support structure is within a predetermined distance from the first support structure a magnetic attractive or repulsive force moves the locking mechanism by a sufficient distance to actuate the device component, wherein the device comprises a firearm and the locking mechanism is, in use, positioned in the firearm, and wherein the second support structure comprises a wearable component, characterized in that the wearable component comprises a glove adapted to be worn by a user, wherein the repulsive or attractive magnetic force that moves the locking mechanism is generated when a user holds the firearm while wearing the glove .
A shovel comprising: a lower travelling body ; an upper swinging body mounted on the lower travelling body ; an attachment attached to the upper swinging body ; an orientation detecting device (M3) configured to detect an orientation of the attachment; an imaging device (M4); and a control device ; characterized in that the control device is configured to obtain information relating to a current shape of a ground surface as a work target based on information output from the imaging device (M4), and to control the attachment based on the obtained information relating to the current shape of the ground surface as the work target and based on the orientation of the attachment detected by the orientation detecting device (M3). a lower travelling body ; an upper swinging body mounted on the lower travelling body ; an attachment attached to the upper swinging body ; an orientation detecting device (M3) configured to detect an orientation of the attachment; an imaging device (M4); and a control device ; characterized in that the control device is configured to obtain information relating to a current shape of a ground surface as a work target based on information output from the imaging device (M4), and to control the attachment based on the obtained information relating to the current shape of the ground surface as the work target and based on the orientation of the attachment detected by the orientation detecting device (M3).