mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for producing brushware, in particular brushes or brooms, having a tufting tool for tufting bristle bundles into a provided bristle carrier, and having a bristle displacer for displacing already tufted bristle bundles from a tufting region of the tufting tool, characterized in that the tufting tool, via a tool coupling gear mechanism, and the bristle displacer, via a displacer coupling gear mechanism, are connected to and driven by a common drive shaft of the apparatus.
A system, comprising: a processor configured to: create a prototype of an ideal EEG average comprising: compute EEG averages when a user is known to be looking at a light; or construct an auto-regression model of EEG data when a user is known to be looking at a light and use coefficients of the auto-regression model as data elements of the prototype; generate a stimulus-locked average signal of a plurality of EEG signal samples; and determine whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events, wherein the determination of whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events is performed by multiplying the stimulus-locked average by an average of the previously created prototype; and a memory coupled to the processor and configured to provide the processor with instructions. a processor configured to: create a prototype of an ideal EEG average comprising: compute EEG averages when a user is known to be looking at a light; or construct an auto-regression model of EEG data when a user is known to be looking at a light and use coefficients of the auto-regression model as data elements of the prototype; generate a stimulus-locked average signal of a plurality of EEG signal samples; and determine whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events, wherein the determination of whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events is performed by multiplying the stimulus-locked average by an average of the previously created prototype; and create a prototype of an ideal EEG average comprising: compute EEG averages when a user is known to be looking at a light; or construct an auto-regression model of EEG data when a user is known to be looking at a light and use coefficients of the auto-regression model as data elements of the prototype; generate a stimulus-locked average signal of a plurality of EEG signal samples; and determine whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events, wherein the determination of whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events is performed by multiplying the stimulus-locked average by an average of the previously created prototype; and compute EEG averages when a user is known to be looking at a light; or construct an auto-regression model of EEG data when a user is known to be looking at a light and use coefficients of the auto-regression model as data elements of the prototype; generate a stimulus-locked average signal of a plurality of EEG signal samples; and determine whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events, wherein the determination of whether the plurality of EEG signal samples are evoked in response to a pattern of stimulus events is performed by multiplying the stimulus-locked average by an average of the previously created prototype; and a memory coupled to the processor and configured to provide the processor with instructions.
Aircraft empennage, comprising: - a vertical tail plane, - a rear fuselage section comprising a skin (1.1) and internal reinforcing members, the vertical tail plane being attached to the rear fuselage section, - a horizontal tail plane comprising two lateral torsion boxes (31, 32), characterized in that the horizontal tail plane further comprises: - a framework located between the two lateral torsion boxes (31, 32) and in connection with them (31, 32), the framework comprising a front spar, a rear spar and two ribs (36, 37) extending between the front spar and the rear spar, each rib (36, 37) adjacent to a lateral torsion box (31, 32), the framework enclosing a portion of the vertical tail plane along its spanwise direction, and the aircraft empennage comprising an attachment assembly attaching the framework to the rear fuselage section, the attachment assembly crossing the skin (1.1) and extending between the internal reinforcing members of the rear fuselage section and the framework. - a vertical tail plane, - a rear fuselage section comprising a skin (1.1) and internal reinforcing members, the vertical tail plane being attached to the rear fuselage section, - a horizontal tail plane comprising two lateral torsion boxes (31, 32), characterized in that the horizontal tail plane further comprises: - a framework located between the two lateral torsion boxes (31, 32) and in connection with them (31, 32), the framework comprising a front spar, a rear spar and two ribs (36, 37) extending between the front spar and the rear spar, each rib (36, 37) adjacent to a lateral torsion box (31, 32), the framework enclosing a portion of the vertical tail plane along its spanwise direction,
A MEMS photoacoustic gas sensor, comprising: a first membrane (14 1); a second membrane (14 2) opposing the first membrane (14 1) and spaced apart from the first membrane (14 1) by a sensing volume; and an electromagnetic source in communication with the sensing volume; wherein the electromagnetic source is configured to generate and emit energy into the sensing volume to thereby excite gas and/or particles in the sensing volume in order to generate pressure inside the sensing volume that leads to deflections of the membranes (14 1, 14 2) in opposite directions; wherein the photoacoustic gas sensor is adapted to provide a measurement signal generated by the deflections of the membranes (14 1, 14 2). a first membrane (14 1); a second membrane (14 2) opposing the first membrane (14 1) and spaced apart from the first membrane (14 1) by a sensing volume; and an electromagnetic source in communication with the sensing volume; wherein the electromagnetic source is configured to generate and emit energy into the sensing volume to thereby excite gas and/or particles in the sensing volume in order to generate pressure inside the sensing volume that leads to deflections of the membranes (14 1, 14 2) in opposite directions; wherein the photoacoustic gas sensor is adapted to provide a measurement signal generated by the deflections of the membranes (14 1, 14 2).
Electrically operated press tool equipment with a hydraulic pump driven by means of a drive unit, which acts on a hydraulic piston cylinder unit, which is operatively connected with a roller holder, the rollers of which unroll on clamping jaws of a clamping device, and by this means move the latter relative to one another; in addition to a pump accommodation housing with a housing wall and a housing cover, the press tool equipment has an actuation valve for purposes of opening a passage between the pump accommodation housing and the piston cylinder unit, characterised in that, the pump accommodation housing is configured such that it has no pipes, wherein a pump flange with an outlet valve of the hydraulic pump is fixed such that it presses directly onto a connecting cylinder of the piston cylinder unit and thus only pressure fluctuations with a low fluid pressure occur within the pump accommodation housing.
A method for focusing electromagnetic radiation from an incident medium into a refractive medium, said incident and refractive mediums defining a critical angle as the angle of incidence above which total internal reflection in the incident medium occurs, wherein the method comprises the steps of: generating an incident electromagnetic wave having a wavelength across a surface of a planar immersion lens in the incident medium, said planar immersion lens comprising sub-wavelength structures of varying impedances; and controlling a phase profile of the incident electromagnetic wave by modulating the incident electromagnetic wave with the sub-wavelength structures of the planar immersion lens, so that the refractive medium includes wave components at or beyond the critical angle, wherein the sub-wavelength structures comprise a plurality of metallic strips, characterized in that the sub-wavelength structures further comprises a plurality of passive elements disposed on the plurality of metallic strips, wherein controlling the phase profile of the incident electromagnetic wave is configured to focus the incident electromagnetic wave across an air-gap between the planar immersion lens. generating an incident electromagnetic wave having a wavelength across a surface of a planar immersion lens in the incident medium, said planar immersion lens comprising sub-wavelength structures of varying impedances; and controlling a phase profile of the incident electromagnetic wave by modulating the incident electromagnetic wave with the sub-wavelength structures of the planar immersion lens, so that the refractive medium includes wave components at or beyond the critical angle, wherein the sub-wavelength structures comprise a plurality of metallic strips, characterized in that the sub-wavelength structures further comprises a plurality of passive elements disposed on the plurality of metallic strips, wherein controlling the phase profile of the incident electromagnetic wave is configured to focus the incident electromagnetic wave across an air-gap between the planar immersion lens.
Traction drive for driving, and for performing regenerative braking of a rail vehicle, wherein at least two axles of the rail vehicle or of the combination of rail vehicles are respectively assigned a permanently excited synchronous motor (6a, 6b) and a traction current converter (4a, 4b) and wherein the traction current converter (4a, 4b) has at least one machine-side pulse current converter, and the permanently excited synchronous motor (6a, 6b) is connected at its terminals to a changeover switch (30a, 30b) in such a way that the permanently excited synchronous motor (6a, 6b) can be connected to a load circuit (32a, 32b) containing at least one load element (28a, 28b) in order to drive the pulse current converter or to perform regenerative braking, characterised in that the load circuits (32a, 32b) which are connected to the permanently excited synchronous motors (6a, 6b) in order to perform regenerative braking are embodied in such a way that the brake characteristic curves (36, 38) of the permanently excited synchronous motors (6a, 6b) are different in terms of characteristic features as a function of the rotational speed (n), the load circuits (32a, 32b) being tuned before the operation of the regenerative brake and remaining unchanged during the braking operation.
A method performed by a remote unit, the method comprising: determining a demodulation reference signal, DMRS, configuration for a physical downlink shared channel, PDSCH, carrying remaining minimum system information, RMSI, wherein the DMRS configuration comprises a first configuration, a second configuration, a mapping order, a frequency domain density, a time domain subframe level density, a time domain symbol level density, or some combination thereof; and receiving, from a base unit, a DMRS based on the DMRS configuration. determining a demodulation reference signal, DMRS, configuration for a physical downlink shared channel, PDSCH, carrying remaining minimum system information, RMSI, wherein the DMRS configuration comprises a first configuration, a second configuration, a mapping order, a frequency domain density, a time domain subframe level density, a time domain symbol level density, or some combination thereof; and receiving, from a base unit, a DMRS based on the DMRS configuration.
A method of making a piece of energy efficient cookware (200, 300, 600, 700, 900, 1000, 1100), comprising: providing a cookware (200, 300, 600, 700, 900, 1000, 1100), wherein the cookware (200, 300, 600, 700, 900, 1000, 1100) has a wall and a base, and wherein the base includes a heating surface and a cooking surface; and thickening the cookware base; characterized by: cutting a pattern of substantially parallel heat exchange channels (210, 610) and fins in the thickened cookware base by using a gang blade, the fins defining the heat exchange channels (210, 610) operable to transfer thermal energy from a heat source to the cooking surface, wherein the gang blade has a plurality of blades; wherein the number of parallel channels (210, 610) in the thickened cookware base is a multiple of the number of the plurality of blades; wherein the space between two adjacent blades of the gang blade is a multiple of the combined width of a specific channel (210, 610) and a specific fin. providing a cookware (200, 300, 600, 700, 900, 1000, 1100), wherein the cookware (200, 300, 600, 700, 900, 1000, 1100) has a wall and a base, and wherein the base includes a heating surface and a cooking surface; and thickening the cookware base; characterized by: cutting a pattern of substantially parallel heat exchange channels (210, 610) and fins in the thickened cookware base by using a gang blade, the fins defining the heat exchange channels (210, 610) operable to transfer thermal energy from a heat source to the cooking surface, wherein the gang blade has a plurality of blades; wherein the number of parallel channels (210, 610) in the thickened cookware base is a multiple of the number of the plurality of blades; wherein the space between two adjacent blades of the gang blade is a multiple of the combined width of a specific channel (210, 610) and a specific fin. cutting a pattern of substantially parallel heat exchange channels (210, 610) and fins in the thickened cookware base by using a gang blade, the fins defining the heat exchange channels (210, 610) operable to transfer thermal energy from a heat source to the cooking surface, wherein the gang blade has a plurality of blades; wherein the number of parallel channels (210, 610) in the thickened cookware base is a multiple of the number of the plurality of blades; wherein the space between two adjacent blades of the gang blade is a multiple of the combined width of a specific channel (210, 610) and a specific fin.
A lighting apparatus comprising: a heat sink having first and second surfaces (121, 122), which are opposite sides, and a plurality of fins, which extend a prescribed distance from a circumference of the heat sink, and a prescribed gap provided between adjacent fins; a light emitting module having at least one light emitting diode provided on the first surface of the heat sink; an active cooling device to dissipate heat by convection, the active cooling device having a housing mated to the fins on the second surface of the heat sink and the housing having a wall of a prescribed width which is less than the prescribed distance of the fins such that vents are provided between the adjacent fins, the active cooling device further including a diaphragm provided in the housing such that a space is provided between the diaphragm and the heat sink and a driving module to move the diaphragm in first and second directions, which are opposite directions, wherein movement of the diaphragm in the first and second directions changes a volume of the space causing air in the space to be discharged through the vents when the diaphragm moves toward the heat sink in the first direction and suctioning air from outside into the space when the diaphragm moves away from the heat sink in the second direction, wherein the housing includes a ridge to serve as seat portion to receive the diaphragm, wherein the active cooling device further comprises a holder between the heat sink and the diaphragm and is provided to press the diaphragm against the seat portion, and wherein the holder includes a plurality of protrusions to serve as spacers. a heat sink having first and second surfaces (121, 122), which are opposite sides, and a plurality of fins, which extend a prescribed distance from a circumference of the heat sink, and a prescribed gap provided between adjacent fins; a light emitting module having at least one light emitting diode provided on the first surface of the heat sink; an active cooling device to dissipate heat by convection, the active cooling device having a housing mated to the fins on the second surface of the heat sink and the housing having a wall of a prescribed width which is less than the prescribed distance of the fins such that vents are provided between the adjacent fins, the active cooling device further including a diaphragm provided in the housing such that a space is provided between the diaphragm and the heat sink and a driving module to move the diaphragm in first and second directions, which are opposite directions, wherein movement of the diaphragm in the first and second directions changes a volume of the space causing air in the space to be discharged through the vents when the diaphragm moves toward the heat sink in the first direction and suctioning air from outside into the space when the diaphragm moves away from the heat sink in the second direction,
A method for synchronizing contact information, comprising: receiving, by an enterprise address book agent network element, from an enterprise address book server, contact information to be updated, wherein the enterprise address book server and the enterprise address book agent network element are located in an enterprise network; sending, by the enterprise address book agent network element, an updating request to a public address book server through a private channel with the public address book server, wherein the public address book server is available in a public network, wherein the updating request comprises an identification of the private channel, a pre-stored user identification and the contact information to be updated, wherein the identification of the private channel, which is assigned by a public address book operator, is used to determine a source of the updating request, and the user identification is an identification of a user in the public address book server, so as for the public address book server to update the contact information to be updated in a user address book corresponding to the user identification, in order to allow a user in the public network to acquire the contact information of the enterprise address book server from the public address book server. receiving, by an enterprise address book agent network element, from an enterprise address book server, contact information to be updated, wherein the enterprise address book server and the enterprise address book agent network element are located in an enterprise network; sending, by the enterprise address book agent network element, an updating request to a public address book server through a private channel with the public address book server, wherein the public address book server is available in a public network, wherein the updating request comprises an identification of the private channel, a pre-stored user identification and the contact information to be updated, wherein the identification of the private channel, which is assigned by a public address book operator, is used to determine a source of the updating request, and the user identification is an identification of a user in the public address book server, so as for the public address book server to update the contact information to be updated in a user address book corresponding to the user identification, in order to allow a user in the public network to acquire the contact information of the enterprise address book server from the public address book server.
A hydraulic fluid sampler (20; 20') comprising: a supply line; a valve fluidly coupled to the supply line; a sample container; a drain line; a sample container holder configured to support the sample container in an inverted position and a non-inverted position, the sample container holder including a first orifice and a second orifice, the first orifice being configured to flush the sample container with hydraulic fluid when the sample container is in the inverted position, the second orifice configured to receive the flushing hydraulic fluid when the sample container is in the inverted position, the second orifice being fluidly connected to the drain line; a frame configured to support the sample container holder in the inverted position and the non-inverted position; and a swivel allowing fluid flow therethrough, the swivel coupling the sample container holder to the frame and allowing rotation of the sample container holder to obtain the inverted position and the non-inverted position of the sample container. a supply line; a valve fluidly coupled to the supply line; a sample container; a drain line; a sample container holder configured to support the sample container in an inverted position and a non-inverted position, the sample container holder including a first orifice and a second orifice, the first orifice being configured to flush the sample container with hydraulic fluid when the sample container is in the inverted position, the second orifice configured to receive the flushing hydraulic fluid when the sample container is in the inverted position, the second orifice being fluidly connected to the drain line; a frame configured to support the sample container holder in the inverted position and the non-inverted position; and a swivel allowing fluid flow therethrough, the swivel coupling the sample container holder to the frame and allowing rotation of the sample container holder to obtain the inverted position and the non-inverted position of the sample container.
Constant velocity joint, consisting of an external joint part with internal ball tracks, an internal joint part with external ball tracks assigned to the internal ball tracks and of balls held in a ball cage, wherein the external joint part can be connected to a connecting part and is sealed by means of a closure cap on the side facing this connecting part, and the internal joint part is embodied as an integral internal joint part, which is connected to a shaft piece in a destruction-free, permanent manner and is sealed towards the external joint part by means of a flexible sealing element, characterised in that, on its free end, which protrudes from the sealing element, the integral internal joint part is provided with a welding attachment for accommodating an adapter, wherein the outer diameter of this welding attachment is larger than the smallest outer diameter of the integral internal joint part and that the integral internal joint part is hardened.
A method for wireless communications performed by a user equipment, UE, comprising: identifying (805; 1705) a set of semi-persistent scheduled resources configured for uplink transmissions by the UE; receiving (810; 1710), from a base station, a resource grid that indicates scheduled uplink communications for one or more other UEs; determining (815; 1715) a set of uplink resources for the UE based at least in part on the set of semi-persistent scheduled resources and the resource grid, the set of uplink resources comprising at least a portion of the set of semi-persistent scheduled resources; and transmitting (820; 1720) an uplink message to the base station via the set of uplink resources. identifying (805; 1705) a set of semi-persistent scheduled resources configured for uplink transmissions by the UE; receiving (810; 1710), from a base station, a resource grid that indicates scheduled uplink communications for one or more other UEs; determining (815; 1715) a set of uplink resources for the UE based at least in part on the set of semi-persistent scheduled resources and the resource grid, the set of uplink resources comprising at least a portion of the set of semi-persistent scheduled resources; and transmitting (820; 1720) an uplink message to the base station via the set of uplink resources.