mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a network system for enabling management of a mass excavation project, wherein the mass excavation project is associated with one or more transporting assets and one or more load destination sites (T 1 , T 2 ), wherein each load destination site (T 1 , T 2 ) is associated with a maximum material weight receiving capacity, the method comprising: obtaining , from a user device associated with a transporting asset , a first information indicating that the transporting asset has been loaded with excavated material; providing , to the user device associated with the transporting asset , a load receipt based on the obtained first information, whereby the load receipt is associated with a load destination site (T 1 ) for depositing the excavated material; obtaining , from the user device associated with the transporting asset , a second information indicating that the transporting asset has off-loaded the excavated material at the load destination site (T 1 ) ; wherein the method is characterized in that the second information indicates the weight of the excavated material and by comprising: determining a remaining material weight receiving capacity of the load destination site (T 2 ) based on the obtained weight of the excavated material and the maximum material weight receiving capacity of the load destination site (T 1 ). obtaining , from a user device associated with a transporting asset , a first information indicating that the transporting asset has been loaded with excavated material; providing , to the user device associated with the transporting asset , a load receipt based on the obtained first information, whereby the load receipt is associated with a load destination site (T 1 ) for depositing the excavated material; obtaining , from the user device associated with the transporting asset , a second information indicating that the transporting asset has off-loaded the excavated material at the load destination site (T 1 ) ; wherein the method is characterized in that the second information indicates the weight of the excavated material and by comprising: determining a remaining material weight receiving capacity of the load destination site (T 2 ) based on the obtained weight of the excavated material and the maximum material weight receiving capacity of the load destination site (T 1 ).
Gearbox with a dual input clutch, comprising two concentric primary shafts respectively connected to the first clutch (E1) and to the second clutch (E2), fixed pinions distributed between the two primary shafts, two secondary shafts bearing idling pinions engaging with the fixed pinions of the primary shafts, and means (M1, M2, M3, M4) for coupling the idling pinions, wherein the first forward-gear ratio and the reverse-gear ratio are established by combining the use of the second forward-gear-ratio idling pinion , characterized in that the lock-up of the two primary shafts via two intermediate-gear-ratio idling pinions of adjacent rows rotating about the same secondary shaft as the second-gear idling pinion , the first forward-gear ratio is obtained by acting on the means (M3) for coupling the second-gear idling pinion to the first secondary shaft , and on the means (M2) for coupling the third-gear and fourth-gear ratios, and in that , in the first forward-gear ratio, the movement passes from a first primary shaft to the secondary shaft driving the differential, via the third-gear and fourth-gear idling pinions , from where it rises to the second primary shaft before descending again to the same secondary shaft via the second-gear pinions .
A method for separating copper from nickel and cobalt, wherein a sulfide comprising copper, nickel and cobalt is pulverized so as to have a particle size of 150 μm or less as a D90 value, value at 90% in terms of volume determined from the particle size distribution measured by a particle size distribution measuring apparatus or the like using a laser diffraction scattering method and the pulverized sulfide is subjected to a leaching treatment by stirring the pulverized sulfide in an acid solution under a condition wherein a redox potential (reference electrode: silver/silver chloride electrode) is less than 100 mV.
A method for wireless communications at a user equipment, UE, comprising: determining to transmit an uplink message on resources of an uplink channel in a shared radio frequency spectrum band; identifying one or more symbol periods of a gap between resources of a downlink channel and the resources of the uplink channel, a duration of a listen-before-talk procedure associated with transmitting the uplink message, and a timing advance value for the UE; performing the listen-before-talk procedure during at least a portion of the resources of the uplink channel or at least a portion of the resources of the downlink channel based at least in part on a combination of the duration of the listen-before-talk procedure and the timing advance value exceeding the one or more symbol periods of the gap; and transmitting the uplink message based at least in part on a result of the listen-before-talk procedure. determining to transmit an uplink message on resources of an uplink channel in a shared radio frequency spectrum band; identifying one or more symbol periods of a gap between resources of a downlink channel and the resources of the uplink channel, a duration of a listen-before-talk procedure associated with transmitting the uplink message, and a timing advance value for the UE; performing the listen-before-talk procedure during at least a portion of the resources of the uplink channel or at least a portion of the resources of the downlink channel based at least in part on a combination of the duration of the listen-before-talk procedure and the timing advance value exceeding the one or more symbol periods of the gap; and transmitting the uplink message based at least in part on a result of the listen-before-talk procedure.
A medical device comprising: an elastic strip with a first fixed end and a second movable end, the elastic strip configured to be in at least one of a forming state, a tense state and an elastic state, wherein when configured in the forming state, the elastic strip is V-shaped, when configured in the elastic state, the elastic strip extends substantially to its fully extended length in an I-shape, and when configured in the tense state, the elastic strip is shaped beyond its fully extended length in a V-shape that is in the opposite direction of the forming state; a release mechanism configured to maintain the elastic strip in the tense state when the release mechanism is in a holding state, and configured to release the elastic strip when in a release state to allow the elastic strip to move sequentially from the tense state to the elastic state, and from the elastic state to the forming state; a needle path with a first bend; a rigid needle located in the needle path and attached to the second movable end, the rigid needle configured to traverse a first portion of the needle path when the elastic strip is in the elastic state; and a cannula located in the needle path , the rigid needle including a distal end that applies a force on the cannula to cause the cannula to traverse a second portion of the needle path when the rigid needle traverses the first portion of the needle path . an elastic strip with a first fixed end and a second movable end, the elastic strip configured to be in at least one of a forming state, a tense state and an elastic state, wherein when configured in the forming state, the elastic strip is V-shaped, when configured in the elastic state, the elastic strip extends substantially to its fully extended length in an I-shape, and when configured in the tense state, the elastic strip is shaped beyond its fully extended length in a V-shape that is in the opposite direction of the forming state; a release mechanism configured to maintain the elastic strip in the tense state when the release mechanism is in a holding state, and configured to release the elastic strip when in a release state to allow the elastic strip to move sequentially from the tense state to the elastic state, and from the elastic state to the forming state; a needle path with a first bend; a rigid needle located in the needle path and attached to the second movable end, the rigid needle configured to traverse a first portion of the needle path when the elastic strip is in the elastic state; and a cannula located in the needle path , the rigid needle including a distal end that applies a force on the cannula to cause the cannula to traverse a second portion of the needle path when the rigid needle traverses the first portion of the needle path .
A method for wireless communication, comprising: identifying a first transient period between a transmit OFF power and transmit ON power for a wireless transmitter, the first transient period identified for a first transmission time interval, TTI, for an uplink transmission of the wireless transmitter, the first TTI having a first duration that is shorter than a second duration of a second TTI for a second uplink transmission of the wireless transmitter; identifying a second transient period between the transmit ON power and transmit OFF power for the wireless transmitter; identifying a transmission bandwidth for the uplink transmission, wherein one or more of the first transient period or the second transient period are identified based at least in part on the transmission bandwidth for the uplink transmission, and wherein one or more of the first transient period or the second transient period has a longer duration for narrowband transmission bandwidths than for wideband transmission bandwidths; applying the first transient period as an OFF-ON mask that starts before a start of the first TTI; applying the second transient period as an ON-OFF mask that ends after an end of the first TTI; and transmitting the uplink transmission during the first TTI. identifying a first transient period between a transmit OFF power and transmit ON power for a wireless transmitter, the first transient period identified for a first transmission time interval, TTI, for an uplink transmission of the wireless transmitter, the first TTI having a first duration that is shorter than a second duration of a second TTI for a second uplink transmission of the wireless transmitter; identifying a second transient period between the transmit ON power and transmit OFF power for the wireless transmitter; identifying a transmission bandwidth for the uplink transmission, wherein one or more of the first transient period or the second transient period are identified based at least in part on the transmission bandwidth for the uplink transmission, and wherein one or more of the first transient period or the second transient period has a longer duration for narrowband transmission bandwidths than for wideband transmission bandwidths; applying the first transient period as an OFF-ON mask that starts before a start of the first TTI; applying the second transient period as an ON-OFF mask that ends after an end of the first TTI; and transmitting the uplink transmission during the first TTI.
A lighting system , configured to provide lighting system light , the lighting system comprising: - a light source configured to provide light source light with light intensity in the blue spectral region; - a first luminescent material configured to convert at least part of the light source light into first luminescent material light with light intensity in the green spectral region and having a full width half maximum (FWHM) of at least 90 nm; - a second luminescent material configured to convert (i) at least part of the light source light , or (ii) at least part of the light source light and at least part of the first luminescent material light into second luminescent material light with light intensity in the spectral region of 610-680 nm, wherein the second luminescent material under excitation with at least part of the light source light , or (ii) at least part of the light source light and at least part of the first luminescent material light shows one or more emission lines having a full width half maximum (FWHM) at RT of 40 nm or less; - a third luminescent material configured to provide third luminescent material light upon excitation with one or more of the light source light and the first luminescent material light, wherein the third luminescent material is a broad band emitter in the orange and/or red spectral region, wherein the lighting system is configured to provide at a first setting of the lighting system lighting system light comprising said light source light , said first luminescent material light , said second luminescent material light and said third luminescent material light, having a color point (x;y) with x=0.38 ±0.1 and with y=0.3±0.1. - a light source configured to provide light source light with light intensity in the blue spectral region; - a first luminescent material configured to convert at least part of the light source light into first luminescent material light with light intensity in the green spectral region and having a full width half maximum (FWHM) of at least 90 nm; - a second luminescent material configured to convert (i) at least part of the light source light , or (ii) at least part of the light source light and at least part of the first luminescent material light into second luminescent material light with light intensity in the spectral region of 610-680 nm, wherein the second luminescent material under excitation with at least part of the light source light , or (ii) at least part of the light source light and at least part of the first luminescent material light shows one or more emission lines having a full width half maximum (FWHM) at RT of 40 nm or less; - a third luminescent material configured to provide third luminescent material light upon excitation with one or more of the light source light and the first luminescent material light, wherein the third luminescent material is a broad band emitter in the orange and/or red spectral region,
Single-serve portion pack comprising a multilayer film structure , said multilayer film structure comprising a protective layer , a print , a base layer and a peelable seal layer , said print situated in-between said protective layer and said base layer wherein said protective layer is a polyalkylene terephthalate based layer characterized by a stress value at 20 % strain, comprised between 5 and 20 MPa, preferably between 5 and 15 MPa, measured with a controlled stress dynamic mechanical analyzer at 90 °C, wherein samples of 10 mm length and 5 mm width are clamped in machine direction with a preload force of 0.025 N, after an equilibrium period of 5 minutes at 90 °C, a steady force increase of 1 N/min. is applied on the sample until a strain of 20% is reached and the resulting stress value is recorded.
A method for shutting down a wind turbine comprising: - a power generator being connected to a set of rotatable rotor blades via a drive train, - a power converter comprising a generator side converter and a grid side converter being separated by an intermediate DC circuit, and - power dissipation or power storage device being operatively connected to the intermediate DC circuit; the method comprising the step of operating the generator side converter as a generator load during a wind turbine shut down sequence, in a manner so that the drive train torque has a constant direction during shutdown of the wind turbine, the method characterized in that the load of the generator side converter is applied in accordance with a power reference derived from a generator torque-speed curve. - a power generator being connected to a set of rotatable rotor blades via a drive train, - a power converter comprising a generator side converter and a grid side converter being separated by an intermediate DC circuit, and - power dissipation or power storage device being operatively connected to the intermediate DC circuit;
A method for preparing a stabilized all-aqueous emulsion, the method comprising contacting an electrically charged first aqueous phase containing a first solute and one or more charged surfactants with a charged second aqueous phase containing a second solute and one or more charged surfactants which has a charge opposite to the charge of the surfactant in the first solution, wherein the solutes are incompatible and induce formation of droplets of a dispersed aqueous phase in a continuous aqueous phase, wherein the first phase and second phase are contacted using electrospraying.
Gas intake device for a cylinder of an internal combustion engine, said gas intake device comprising two intake ducts , an intake valve arranged in each intake duct , a valve calibration part arranged at one end of each intake duct and directed towards the combustion face (FF) of said cylinder, and, within each intake duct , means for generating an aerodynamic movement of said gas within said cylinder about an axis substantially perpendicular to the axis of said cylinder, characterized in that , on the intrados of each of said two intake ducts , the intersection between each intake duct and said calibration part forms a straight-line segment borne by a rectilinear generatrix (YaYa, YbYb) forming an angle α of between 0 and 45° with respect to a plane parallel to said combustion face (FF) of said cylinder and passing through a point of intersection between said intake duct and said calibration part, said angles α of said two intake ducts being different.
A test adapter for an electronic product to be tested, the test adapter (TA) comprising a support structure and a product stand supported on the support structure for the product (DUT), whereby the product stand is supported to the support structure by a guide structure (301 to 304) that controls the vertical movement (U) of the product stand, and that the product stand is, by a direct or indirect pressing movement from above, arranged to be movable from a top position (TOP) to a low position (LOW) on the guide structure (301 to 304), and that the test adapter comprises a retaining structure for retaining the product stand in the low position (LOW) and for retaining a latch structure in the adapter in a locking position, the latch structure being arranged to lock the product to the product stand , characterised in that the retaining structure is magnetic with electric control to activate and deactivate the magnetic attachment.
Anchor rail for anchoring in concrete, the anchor rail having a substantially C-shaped cross-section, wherein the anchor rail comprises a base body with a substantially C-shaped cross-section, two free legs and at least one anchor , wherein the base body comprises a base and two side walls , wherein the two free legs are located opposite the base of the base body, wherein the at least one anchor is fixed to an outside of the base , wherein the outside of the base is averted from the free legs located opposite the base , wherein a slot is formed in the longitudinal direction of the anchor rail between the free legs , wherein the anchor rail has at least one thickening at the base body , wherein the thickening is located at the base at least in the region of at least one anchor and is designed as a base thickening , wherein the side walls are perpendicular with respect to the base , wherein the side walls form outer edges with the base , wherein the side walls extend parallel to each other, characterised in that the base is designed flat on its outside, and in that the base thickening is located on an inside of the base opposite the outside of the base .
Battery stack having individual battery cells , which are interconnected with one another by way of a connector , wherein the connector formed as a battery contacting means is a two-phase connecting element and comprises a joining material at each end of the connector , said joining material being identical to a respective material of a respective connection pin , which is to be electrically contacted, of an individual battery cell, wherein the connector formed as a battery contacting means is a sheet with a sandwich construction, which comprises at least one individual sheet made of material A and at least one individual sheet made of material B, characterized in that a connection pin of the battery cell , produced from material A of the individual sheet , is plugged through an opening in the connector such that a contact point is formed and the connection pin and the contact point form a joint weld bead after remelting, wherein the individual sheet of the connector serves as a weld bead support on a bottom side of the connector .
An indoor unit for an air-conditioning apparatus, the indoor unit comprising: on at least one side of a casing , a designed side rib part that is provided so as to protrude along a short direction of the casing , the designed side rib part having a distal end portion that has a linear shape in rear view; and a designed side planar part that is provided so as to protrude along the short direction of the casing , the designed side planar part having a distal end portion that has a substantially rectangular shape in rear view, characterized in that when the side of the casing is adapted to be fitted to a cushioning member for packing, both the distal end portion of the designed side rib part and the distal end portion of the designed side planar part are adapted to have contact with an inner wall of the cushioning member opposite to the distal end portion of the designed side rib part .
Partition separating a passenger compartment from a driver's cab of a rail vehicle for passenger traffic, wherein it comprises at least two doors for the passage of persons, wherein the doors are mounted in a common frame and are embodied to be at least partially transparent and the doors are suitable for being smashed with an emergency hammer.
A power electronics unit configured to control the operation of an electric drive motor of a compressor in a vapor compression system of a refrigeration unit, the power electronics unit comprising: a semiconductor portion comprising at least one fan configured to transfer substantially all of the heat derived from the semiconductor portion ; and an inductor portion comprising at least one conduit configured to receive a working fluid from the vapor compression system, wherein the working fluid is configured to transfer all of the heat derived from the inductor portion , and the power electronics unit solely uses the working fluid to cool the inductor portion such that the semiconductor portion is not cooled using any of the cooling capacity of the working fluid. a semiconductor portion comprising at least one fan configured to transfer substantially all of the heat derived from the semiconductor portion ; and an inductor portion comprising at least one conduit configured to receive a working fluid from the vapor compression system, wherein the working fluid is configured to transfer all of the heat derived from the inductor portion , and the power electronics unit solely uses the working fluid to cool the inductor portion such that the semiconductor portion is not cooled using any of the cooling capacity of the working fluid.
A machine assembly for use in an elevator system , comprising: a support structure having a first end connected to an adjacent support member and a second end supported by at least one car guide rail , the support structure being arranged generally perpendicular to the support member and being configured to receive at least one component of the elevator system; characterized in that the support member is positioned and supported atop at least one counterweight guide rail . a support structure having a first end connected to an adjacent support member and a second end supported by at least one car guide rail , the support structure being arranged generally perpendicular to the support member and being configured to receive at least one component of the elevator system; characterized in that the support member is positioned and supported atop at least one counterweight guide rail .