mhurhangee/ep-ind-claims huggingface dataset:
A remote management apparatus for remotely managing one or more devices via a communication device which is to be incorporated in or connected to each of the one or more devices via a network, wherein, after establishing communication with the communication device, the remote management apparatus is configured to identify, based on information received from the communication device, a model of each of the one or more devices and a property in which the device is to be installed, characterized in that: the remote management apparatus is configured to store in advance, for each type of property, property setting information that includes initial setting information of the device; and the remote management apparatus is further configured to select, on the basis of the property that is identified, the property setting information corresponding to the type of the property, select, on the basis of the property setting information that is selected, the initial setting information of the device whose model is identified, and transmit the initial setting information of the device that is selected, to the communication device. after establishing communication with the communication device, the remote management apparatus is configured to identify, based on information received from the communication device, a model of each of the one or more devices and a property in which the device is to be installed, characterized in that: the remote management apparatus is configured to store in advance, for each type of property, property setting information that includes initial setting information of the device; and the remote management apparatus is further configured to select, on the basis of the property that is identified, the property setting information corresponding to the type of the property, select, on the basis of the property setting information that is selected, the initial setting information of the device whose model is identified, and transmit the initial setting information of the device that is selected, to the communication device. the remote management apparatus is configured to store in advance, for each type of property, property setting information that includes initial setting information of the device; and the remote management apparatus is further configured to select, on the basis of the property that is identified, the property setting information corresponding to the type of the property, select, on the basis of the property setting information that is selected, the initial setting information of the device whose model is identified, and transmit the initial setting information of the device that is selected, to the communication device. select, on the basis of the property that is identified, the property setting information corresponding to the type of the property, select, on the basis of the property setting information that is selected, the initial setting information of the device whose model is identified, and transmit the initial setting information of the device that is selected, to the communication device.
A method for permission management, comprising: obtaining fingerprint information of a user based on a touch operation on a preset interface of a terminal by the user; determining, according to the obtained fingerprint information, whether the user is an authorized user, an authorized user having a permission for modifying a configuration of said terminal; and when the user is an unauthorized user, disabling said permission for modifying a configuration of the terminal by the user, all other operations being enabled; characterized in that the touch operation comprises a long-press operation; the step of obtaining fingerprint information of a user based on a touch operation on a preset interface of a terminal by the user, comprises: monitoring touch events on the preset interface of the terminal by the user; determining whether a monitored touch event is a long-press event; and when the monitored touch event is a long-press event, obtaining a touch point of the long-press event, and obtaining the fingerprint information of the user at the position of the touch point. obtaining fingerprint information of a user based on a touch operation on a preset interface of a terminal by the user; determining, according to the obtained fingerprint information, whether the user is an authorized user, an authorized user having a permission for modifying a configuration of said terminal; and when the user is an unauthorized user, disabling said permission for modifying a configuration of the terminal by the user, all other operations being enabled; characterized in that the touch operation comprises a long-press operation; the step of obtaining fingerprint information of a user based on a touch operation on a preset interface of a terminal by the user, comprises: monitoring touch events on the preset interface of the terminal by the user; determining whether a monitored touch event is a long-press event; and when the monitored touch event is a long-press event, obtaining a touch point of the long-press event, and obtaining the fingerprint information of the user at the position of the touch point. monitoring touch events on the preset interface of the terminal by the user; determining whether a monitored touch event is a long-press event; and when the monitored touch event is a long-press event, obtaining a touch point of the long-press event, and obtaining the fingerprint information of the user at the position of the touch point.
Battery arrangement for the load-bearing structural integration of batteries into a vehicle, especially an aircraft or spacecraft, having: two cover plates having battery holders; and a multiplicity of batteries, which are held on both sides between the cover plates by the battery holders, wherein the batteries are arranged in battery rows along the cover plates, wherein the batteries in the battery rows are each aligned at a slope angle (α) relative to the cover plates in order to absorb and transmit loads, wherein the slope angle (α) in the battery rows has positive and negative values, wherein the magnitude of the slope angle (α) has values greater than 0° and less than 90°. two cover plates having battery holders; and a multiplicity of batteries, which are held on both sides between the cover plates by the battery holders, wherein the batteries are arranged in battery rows along the cover plates, wherein the batteries in the battery rows are each aligned at a slope angle (α) relative to the cover plates in order to absorb and transmit loads, wherein the slope angle (α) in the battery rows has positive and negative values, wherein the magnitude of the slope angle (α) has values greater than 0° and less than 90°.
An integrated circuit comprising: metal-oxide-semiconductor transistors each of which has a body terminal, wherein the metal-oxide-semiconductor transistors comprise n-channel metal-oxide-semiconductor transistors each of which has a body terminal; input-output pins with which power supply signals (Vcc, Vss) are supplied to the integrated circuit; a body bias path that distributes a body bias signal (Vpwbias) for reducing a power consumption to the body terminals of the n-channel metal-oxide-semiconductor transistors; body bias generation circuitry that generates the body bias signal (Vpwbias) that is applied to the body bias path; and active latch-up prevention circuitry that monitors the power supply signals (Vcc, Vss) to detect potential latch-up conditions for the n-channel metal-oxide-semiconductor transistors and that holds the body bias path at a safe voltage to prevent latch-up in the metal-oxide-semiconductor transistors while the potential latch-up condition is present by turning on a transistor to clamp the body bias path at a ground power supply voltage (Vss); wherein the body bias generation circuitry comprises a charge pump circuit that generates a negative voltage signal (Vneg); wherein the active latch-up prevention circuitry comprises circuitry that monitors the negative voltage signal (Vneg) from the body bias generation circuitry to determine whether the body bias signal (Vpwbias) on the body bias path is valid; wherein the input-output pins comprise input-output pins that receive a positive power supply signal (Vcc) and a ground power supply signal (Vss); and wherein the active latch-up prevention circuitry comprises circuitry that monitors whether the positive power supply signal (Vcc) and the ground power supply signal (Vss) are valid on the input-output pins; wherein the potential latch-up conditions include when the positive power supply signal (Vcc) is valid while the body bias signal is not valid (Vpwbias). metal-oxide-semiconductor transistors each of which has a body terminal, wherein the metal-oxide-semiconductor transistors comprise n-channel metal-oxide-semiconductor transistors each of which has a body terminal; input-output pins with which power supply signals (Vcc, Vss) are supplied to the integrated circuit; a body bias path that distributes a body bias signal (Vpwbias) for reducing a power consumption to the body terminals of the n-channel metal-oxide-semiconductor transistors; body bias generation circuitry that generates the body bias signal (Vpwbias) that is applied to the body bias path; and active latch-up prevention circuitry that monitors the power supply signals (Vcc, Vss) to detect potential latch-up conditions for the n-channel metal-oxide-semiconductor transistors and that holds the body bias path at a safe voltage to prevent latch-up in the metal-oxide-semiconductor transistors while the potential latch-up condition is present by turning on a transistor to clamp the body bias path at a ground power supply voltage (Vss);
A cooking fume purification module, comprising: a housing, the housing comprising: a cylindrical body defining an air channel; and a plurality of extending portions protruding outwards from the body, and each extending portion defining an introduction channel in communication with the air channel; a plurality of emitter plates each being provided with a plurality of emitter pins located in the introduction channel, wherein each of the extending portions is equipped with one emitter plate; and a plurality of dust collection plates arranged in the air channel and spaced apart about an axial direction of the body, and each dust collection plate corresponding to one emitter plate, wherein the dust collection plates and the emitter plates are arranged such that fume particles can be separated under actions of an electric field force and an inertial centrifugal force. a housing, the housing comprising: a cylindrical body defining an air channel; and a plurality of extending portions protruding outwards from the body, and each extending portion defining an introduction channel in communication with the air channel; a cylindrical body defining an air channel; and a plurality of extending portions protruding outwards from the body, and each extending portion defining an introduction channel in communication with the air channel; a plurality of emitter plates each being provided with a plurality of emitter pins located in the introduction channel, wherein each of the extending portions is equipped with one emitter plate; and a plurality of dust collection plates arranged in the air channel and spaced apart about an axial direction of the body, and each dust collection plate corresponding to one emitter plate, wherein the dust collection plates and the emitter plates are arranged such that fume particles can be separated under actions of an electric field force and an inertial centrifugal force.
A communication method, comprising: receiving, by a terminal device, reference signal configuration information from a network device, wherein the reference signal configuration information comprises the following information: a beam sweeping type and a reference signal beam indication; receiving, by the terminal device, a reference signal and data from the network device; and determining, by the terminal device, based on the reference signal configuration information, whether data can be mapped onto another resource element that is located on a same orthogonal frequency division multiplexing, OFDM, symbol as the reference signal; wherein: if the beam sweeping type is sweeping a transmit beam or not sweeping a receive beam, and the reference signal beam indication is the same as a beam indication of the data, determining, by the terminal device, that data can be mapped onto the another resource element that is located on the same OFDM symbol as the reference signal. receiving, by a terminal device, reference signal configuration information from a network device, wherein the reference signal configuration information comprises the following information: a beam sweeping type and a reference signal beam indication; receiving, by the terminal device, a reference signal and data from the network device; and determining, by the terminal device, based on the reference signal configuration information, whether data can be mapped onto another resource element that is located on a same orthogonal frequency division multiplexing, OFDM, symbol as the reference signal; wherein: if the beam sweeping type is sweeping a transmit beam or not sweeping a receive beam, and the reference signal beam indication is the same as a beam indication of the data, determining, by the terminal device, that data can be mapped onto the another resource element that is located on the same OFDM symbol as the reference signal.
Rail for an inline skate comprising rollers, a rail and a shoe connectable to the rollers via the rail, having a foremost mounting portion forwardly arranged in respect of the forward direction of the inline skate and a rearmost mounting portion rearwardly arranged in respect of this forward direction, the shoe being mountable on the rail via the mounting portions (6, 8), said mounting portions (6, 8) at their sides facing the shoe each defining a mounting surface (11, 12), said mounting surfaces (11, 12) being arranged on different planes in such a way that in respect of an inline skate erected according to function on a horizontal plane the mounting surface of the rearmost mounting portion is higher than the mounting surface of the foremost mounting portion, characterised in that the rail is integrally constructed and produced from a punched and shaped thin sheet metal plate and the foremost mounting portion and lateral walls of the rail are produced by shaping sides of the thin sheet metal plate 90° downwards.
Layered material with four or more layers with the following order: - textile support layer; - foamed layer A; - non-foamed top layer; and - varnish layer; wherein layer A comprises: - 0-35 weight percent polyethylene as the first polymer, - 30-80 weight percent ethylene propylene diene monomer (EPDM) as the second polymer; - 10-40 weight percent filler, wherein the organic component of layer A has a bio-based carbon content of at least 50% as determined by ASTM D6866-16 Method B; and wherein the layered material has a thickness of up to 4 cm. - textile support layer; - foamed layer A; - non-foamed top layer; and - varnish layer; wherein - 0-35 weight percent polyethylene as the first polymer, - 30-80 weight percent ethylene propylene diene monomer (EPDM) as the second polymer; - 10-40 weight percent filler, wherein the organic component of layer A has a bio-based carbon content of at least 50% as determined by ASTM D6866-16 Method B; and wherein the layered material has a thickness of up to 4 cm.
A partition wall element comprising a plate-shaped stand base and a wall element extending at right angles thereto, wherein the wall element is fixable to the stand base in a force-locking and/or positively locking manner in such a way that the wall element stands with its end side on the stand base, characterized in that linear power conductors for at least one electrical circuit and/or data lines of a data bus extend as exposed contact paths and/or as a single electrical conductor/wires of a cable over the length of the stand base, and wherein the at least one electrical conductor and/or the at least one data bus of the stand base is/are accordingly connectable via a contact or a piercing contact at any point to at least one electrical conductor and/or to at least one data bus of the wall element, wherein the wall element has a groove which is assigned to the stand base and in which is arranged at least one electrical contact element which connects the electrical circuit and/or the data bus of the stand base to the electrical circuit and/or the data bus of the wall element, wherein the wall element with assigned plug elements or screw elements is assembled in a predetermined position on the respectively assigned stand base, wherein the end-side groove of the wall element extends across a web of the stand base.
An integrated circuit package, comprising: a first integrated circuit die (102-1, 200); a second integrated circuit die (102-2, 201); first interconnect paths (202, 204, 300, 300*) that are coupled between the first and second integrated circuit dies (102-1, 102-2, 200, 201) to provide a control channel and that are repaired using a passive redundancy scheme; and second interconnect paths (206, 300) that are coupled between the first and second integrated circuit dies (102-1, 102-2, 200, 201) to convey user signals between the first and second integrated circuit dies (102-1, 102-2, 200, 201) and that are supported using an active redundancy scheme; wherein the integrated circuit package is configured to initialize the active redundancy scheme of said second interconnect paths (206, 300) via said control channel associated with the first interconnect paths (202, 204, 300, 300*). a first integrated circuit die (102-1, 200); a second integrated circuit die (102-2, 201); first interconnect paths (202, 204, 300, 300*) that are coupled between the first and second integrated circuit dies (102-1, 102-2, 200, 201) to provide a control channel and that are repaired using a passive redundancy scheme; and second interconnect paths (206, 300) that are coupled between the first and second integrated circuit dies (102-1, 102-2, 200, 201) to convey user signals between the first and second integrated circuit dies (102-1, 102-2, 200, 201) and that are supported using an active redundancy scheme; wherein the integrated circuit package is configured to initialize the active redundancy scheme of said second interconnect paths (206, 300) via said control channel associated with the first interconnect paths (202, 204, 300, 300*).
A stent delivery system, comprising: an elongate shaft including an inner member having a stent receiving region and a deployment sheath slidably disposed along the inner member; a handle coupled to the elongate shaft; a rack member (52; 352; 452) coupled to the deployment sheath, wherein at least a portion of the rack member (52; 352; 452) is designed to extend within the handle; and wherein the rack member (52; 352; 452) includes a base portion (352a; 452a) and a displaceable portion (352b; 452b) that is displaceable relative to the base portion (352a; 452a); and wherein the base portion (352a; 452a) includes a grooved section (380; 480) for receiving a flanged section (384; 484) of the displaceable portion (352b; 452b); and a pull handle (58; 358; 458) coupled to the rack member (52352; 452; 552). an elongate shaft including an inner member having a stent receiving region and a deployment sheath slidably disposed along the inner member; a handle coupled to the elongate shaft; a rack member (52; 352; 452) coupled to the deployment sheath, wherein at least a portion of the rack member (52; 352; 452) is designed to extend within the handle; and wherein the rack member (52; 352; 452) includes a base portion (352a; 452a) and a displaceable portion (352b; 452b) that is displaceable relative to the base portion (352a; 452a); and wherein the base portion (352a; 452a) includes a grooved section (380; 480) for receiving a flanged section (384; 484) of the displaceable portion (352b; 452b); and a pull handle (58; 358; 458) coupled to the rack member (52352; 452; 552).
A method (600, 610) for invoking a sleep state within a user equipment, UE, comprising: decoding a broadcast control channel from a cell (110, 115), said broadcast control channel providing system information blocks, SIBs, which comprise system information including parameters that can be used to establish a connection to said cell (110, 115); determining a System Information Block or SIB schedule that is associated with the cell (110, 115) based on information received on the decoded broadcast channel; determining a sleep time interval based upon the SIB schedule, wherein said determining a sleep interval comprises determining a duration of time between adjacent SIBs which are to be decoded based upon the SIB schedule if said duration exceeds a threshold for entering the sleep state; placing the UE in a sleep state based on the sleep time interval. decoding a broadcast control channel from a cell (110, 115), said broadcast control channel providing system information blocks, SIBs, which comprise system information including parameters that can be used to establish a connection to said cell (110, 115); determining a System Information Block or SIB schedule that is associated with the cell (110, 115) based on information received on the decoded broadcast channel; determining a sleep time interval based upon the SIB schedule, wherein said determining a sleep interval comprises determining a duration of time between adjacent SIBs which are to be decoded based upon the SIB schedule if said duration exceeds a threshold for entering the sleep state; placing the UE in a sleep state based on the sleep time interval.
Boot for ski jumping, comprising a sole, a shaft and a foot part, wherein the foot part is formed in two parts and comprises a toe part and a base part, the toe part being substantially movable independently of the base part, characterized in that the toe part and the base part are spaced from each other at least in the region of the back of the foot, and in that the spatial separation between the toe part and base part extends substantially diagonal from an outer surface of the boot for ski jumping approximately from a region distal to the toe joint of the small toe to an inner surface of the boot for ski jumping to the area of the great toe joint.
A method for heating molten glass, the method comprising the steps: - Providing two or more electrodes and bringing each of them at least in part in contact with the molten glass; - Applying a voltage between a first electrode and a second electrode, with the voltage being an AC voltage; and - Controlling the temperature of the molten glass, which comprises one or more of the following steps: i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass. - Providing two or more electrodes and bringing each of them at least in part in contact with the molten glass; - Applying a voltage between a first electrode and a second electrode, with the voltage being an AC voltage; and - Controlling the temperature of the molten glass, which comprises one or more of the following steps: i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass. i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass.