mhurhangee/patent-ind-claim-en huggingface dataset:
A work machine, comprising: a harvesting assembly configured to execute a harvesting operation; a distribution assembly configured to distribute material to the underlying surface; wherein the work machine ins configured to execute the harvesting operation at substantially the same time as the distribution assembly distributes material on the underlying surface and the distribution assembly is a planter and the material is a cover crop seed; characterized in that the work machine comprises a sensing assembly configured to identify characteristics of an underlying surface at substantially the same time as the harvesting operation, wherein the characteristics of the underlying surface are any of a crop yield, grain moisture, grade of the surface, or nitrogen level of the surface; and that the distribution assembly is configured to distribute the cover crop seed based on the sensed characteristics as the work machine moves along the underlying surface and to vary the density of cover crop seed distributed on the underlying surface based on the characteristics identified by the sensing assembly . a harvesting assembly configured to execute a harvesting operation; a distribution assembly configured to distribute material to the underlying surface; wherein the work machine ins configured to execute the harvesting operation at substantially the same time as the distribution assembly distributes material on the underlying surface and the distribution assembly is a planter and the material is a cover crop seed; characterized in that the work machine comprises a sensing assembly configured to identify characteristics of an underlying surface at substantially the same time as the harvesting operation, wherein the characteristics of the underlying surface are any of a crop yield, grain moisture, grade of the surface, or nitrogen level of the surface; and that the distribution assembly is configured to distribute the cover crop seed based on the sensed characteristics as the work machine moves along the underlying surface and to vary the density of cover crop seed distributed on the underlying surface based on the characteristics identified by the sensing assembly .
A terminal for intermediate connection to an electric cable , comprising a body of conducting metal material having a connection part configured to be connected to a user device, and a support part configured to receive an intermediate portion of the electric cable welded to the support part , wherein an insulating sleeve of the electric cable has been removed in the intermediate portion , wherein said terminal comprises, on each of longitudinally opposite ends of the support part , a pair of crimping tabs (15a, 15b; 16a, 16b) extending from transversely opposite sides of the support part and susceptible to be clamped by deformation around an insulating sleeve of the electric cable adjacent to the intermediate portion of the electric cable , wherein each pair of tabs (15a, 15b; 16a, 16b) comprises at least one rib adapted to engage the insulating sleeve of the electric cable and extending transversely between the opposite free ends (15a', 15b'; 16a', 16b') of the pair of tabs (15a, 15b; 16a, 16b'). wherein the opposite free ends (15a', 15b'; 16a', 16b') of each pair of tabs (15a, 15b; 16a, 16b) have complementary profiles that interdigitate when the pair of tabs (15a, 15b; 16a, 16b) is clamped around the insulating sleeve of the electric cable .
An apparatus, comprising: a transfer substrate , comprising two or more transfer elements , each of the transfer elements comprising: an adhesion element having a first surface adhesion at a first temperature and a second surface adhesion at a second temperature, the second surface adhesion less than the first surface adhesion; and a thermal element operable to change a temperature of the adhesion element in response to an input; and a controller coupled to provide the inputs to the thermal elements of the two or more transfer elements to cause a subset of the transfer elements to selectably hold objects to and release the objects from the transfer substrate in response to changes between the first and second surface adhesion of the subset of the transfer elements, wherein the changes between the first and second surface adhesions are repeatable and reversible, characterised in that the thermal element comprises a thermoelectric cooling element. a transfer substrate , comprising two or more transfer elements , each of the transfer elements comprising: an adhesion element having a first surface adhesion at a first temperature and a second surface adhesion at a second temperature, the second surface adhesion less than the first surface adhesion; and a thermal element operable to change a temperature of the adhesion element in response to an input; and an adhesion element having a first surface adhesion at a first temperature and a second surface adhesion at a second temperature, the second surface adhesion less than the first surface adhesion; and a thermal element operable to change a temperature of the adhesion element in response to an input; and a controller coupled to provide the inputs to the thermal elements of the two or more transfer elements to cause a subset of the transfer elements to selectably hold objects to and release the objects from the transfer substrate in response to changes between the first and second surface adhesion of the subset of the transfer elements, wherein the changes between the first and second surface adhesions are repeatable and reversible, characterised in that the thermal element comprises a thermoelectric cooling element.
An antenna, comprising: a plurality of waveguide antenna elements arranged in a first array configured to operate with a first polarization; a plurality of waveguide output ports arranged in a second array configured to operate with a second polarization, wherein the second polarization is different from the first polarization; and a polarization-rotating layer with channels defined therein, wherein the polarization-rotating layer is disposed between the waveguide antenna elements and the waveguide output ports, wherein the channels are oriented at a first angle with respect to the waveguide antenna elements and at a second angle with respect to the waveguide output ports, wherein the channels comprise through-holes in the polarization-rotating layer, wherein not all of the through-holes have the same cross-sectional shape, wherein the channels are configured to receive input electromagnetic waves having the first polarization and transmit output electromagnetic waves having a first intermediate polarization, and wherein the waveguide output ports are configured to receive input electromagnetic waves and radiate electromagnetic waves having the second polarization. a plurality of waveguide antenna elements arranged in a first array configured to operate with a first polarization; a plurality of waveguide output ports arranged in a second array configured to operate with a second polarization, wherein the second polarization is different from the first polarization; and a polarization-rotating layer with channels defined therein, wherein the polarization-rotating layer is disposed between the waveguide antenna elements and the waveguide output ports, wherein the channels are oriented at a first angle with respect to the waveguide antenna elements and at a second angle with respect to the waveguide output ports, wherein the channels comprise through-holes in the polarization-rotating layer, wherein not all of the through-holes have the same cross-sectional shape, wherein the channels are configured to receive input electromagnetic waves having the first polarization and transmit output electromagnetic waves having a first intermediate polarization, and wherein the waveguide output ports are configured to receive input electromagnetic waves and radiate electromagnetic waves having the second polarization.
A saddle riding vehicle, comprising: a unit swing engine that is swingably supported on a vehicle body frame via a rocking shaft disposed at an upper portion of the unit swing engine ; and a radiator disposed beside the unit swing engine , wherein the radiator includes a radiator core that has a rectangular shape in a side view, the radiator is disposed to be inclined such that a front edge portion of the radiator core is inclined rearwardly in a side view, the rocking shaft is disposed, in a side view, anterior to an upper portion of the front edge portion of the radiator core , the rocking shaft is disposed, in a side view, superior to a lower end portion of the front edge portion of the radiator core , characterized in that the rocking shaft is disposed, in a side view, inferior to an upper end portion of the front edge portion of the radiator core , and the rocking shaft is disposed, in a side view, posterior to the lower end portion of the front edge portion of the radiator core . a unit swing engine that is swingably supported on a vehicle body frame via a rocking shaft disposed at an upper portion of the unit swing engine ; and a radiator disposed beside the unit swing engine , wherein the radiator includes a radiator core that has a rectangular shape in a side view, the radiator is disposed to be inclined such that a front edge portion of the radiator core is inclined rearwardly in a side view, the rocking shaft is disposed, in a side view, anterior to an upper portion of the front edge portion of the radiator core , the rocking shaft is disposed, in a side view, superior to a lower end portion of the front edge portion of the radiator core , characterized in that the rocking shaft is disposed, in a side view, inferior to an upper end portion of the front edge portion of the radiator core , and the rocking shaft is disposed, in a side view, posterior to the lower end portion of the front edge portion of the radiator core .
A method in a communications network comprising a first server that registers devices for a first service in the network and a plurality of second servers that register devices for a second service in the network, the method for use by the first server wherein the first server comprises a processor and memory, and wherein the first server further includes computer-executable instructions stored in the memory which, when executed by the processor, perform functions of registering devices for the first service, the method comprising: receiving a registration message from a device , wherein the registration message comprises location information of the device ; registering the device at the first server ; selecting a second server from the plurality of second servers based at least on the location information of the device ; and forwarding data from the registration message to the selected second server to register the device at the selected second server . receiving a registration message from a device , wherein the registration message comprises location information of the device ; registering the device at the first server ; selecting a second server from the plurality of second servers based at least on the location information of the device ; and forwarding data from the registration message to the selected second server to register the device at the selected second server .
Method for operating an ultrasound sensor, comprising the steps of - detecting an operating voltage (S1) applied to the ultrasound sensor, and - adjusting a transmission power of the ultrasound sensor depending on the detected applied operating voltage (S2), characterized in that the transmission power is reduced when the detected operating voltage is below a threshold value, wherein a degree of adjustment of the transmission power is transmitted to a control device and an individual value for the sound pressure of the ultrasound sensor is output depending on the adjustment, wherein a loss of range is estimated depending on the individual value for the sound pressure so that a value representing the range of the ultrasound sensor is provided and a piece of information is output to the driver depending on the range of the ultrasound sensor. - detecting an operating voltage (S1) applied to the ultrasound sensor, and - adjusting a transmission power of the ultrasound sensor depending on the detected applied operating voltage (S2), characterized in that the transmission power is reduced when the detected operating voltage is below a threshold value, wherein a degree of adjustment of the transmission power is transmitted to a control device and an individual value for the sound pressure of the ultrasound sensor is output depending on the adjustment, wherein a loss of range is estimated depending on the individual value for the sound pressure so that a value representing the range of the ultrasound sensor is provided and a piece of information is output to the driver depending on the range of the ultrasound sensor.
A high strength steel plate superior in stretch flange formability and fatigue characteristics characterized by comprising steel plate containing, by mass%, C: 0.03 to 0.20%, Si: 0.08 to 1.5%, Mn: 1.0 to 3.0%, P: 0.05% or less, S: 0.0005% or more, N: 0.0005 to 0.01%, acid soluble Al: 0.01% or less, acid soluble Ti: less than 0.008%, and a total of one or both of Ce or La: 0.0005 to 0.04%, and optionally one or more of any of V: 0.01 to 0.05%, Cr: 0.01 to 0.6%, Mo: 0.01 to 0.4%, and B: 0.0003 to 0.03%, and having a balance of iron and unavoidable impurities, and having a number ratio of 20% or less of stretched inclusions present in the steel plate having a circle equivalent diameter of 1 μm or more and a long axis/short axis of 5 or more and having inclusions comprised of an oxide or oxysulfide of one or both of Ce or La on which MnS is precipitated.
Hydraulically driven precision blanking press, with a main cylinder space , which is arranged in the bottom unit and guided in which is the main piston/plunger , which can be subjected to hydraulic fluid by way of pressure spaces , performs a stroke movement between top dead centre and bottom dead centre in the direction of the stroke axis (HU) and bears a die plate , with double-acting fast stroke pistons , which are guided in fast stroke cylinders , can be subjected to hydraulic fluid by way of pressure spaces and have piston rods for the rapid-traversing/probing stroke of the main piston and the die plate , and with a hydraulic system , comprising at least one hydraulic pump unit , for supplying the pressure spaces (15a, 15b; 23a, 23b) with the hydraulic fluid set to a preset working pressure by a central controller , wherein the main piston has working faces , which protrude in a discus-like manner and partition the first, upper and second, lower pressure space lying above one another in the main cylinder space with a small stroke, assigned to which are first, upper fluid channels and second, lower fluid channels in the bottom unit , which are in connection with the hydraulic system , wherein the first fluid channels (24a to 24d) are connected to the second fluid channels (24e to 24f) by a respective bypass channel arranged in the bottom unit , characterized in that the bypass channel forms with these fluid channels (24a to 24h) and the pressure spaces an inner hydraulic system, which is open in rapid traversing mode by pressure-controlled proportional valves when the hydraulic fluid is forced out of the first pressure space into the second pressure space and is closed in the power stroke, and in that during the power stroke at least one second fluid channel is a power stroke channel and the first pressure space is connected to a relieving channel , wherein, for feeding hydraulic fluid of a preset pressure into the second pressure space , this fluid channel is in connection with a feed-line channel and a branch-off channel and, for discharging the hydraulic fluid forced out of the first pressure space , the relieving channel is in connection with a collecting tank by way of a tank valve .
A steerable vehicle comprising a first vehicle steering device, vehicle wheels arranged on at least one front axle and on at least two rear axles , where said front axle and at least one of said rear axles are driven, and where a control unit is arranged to register parameters; - steering angle of the vehicle, - wheelbase of the vehicle (x, y, z), - wheel track of the vehicle, and based on said parameters further to calculate a wheel speed for each driven wheel in order to control wheel speed for said driven wheels with minimized wheel slip, characterized in that said control unit is arranged to automatically register altered wheelbase (x, y, z) and recalculate said wheel speeds for each driven wheel accordingly. - steering angle of the vehicle, - wheelbase of the vehicle (x, y, z), - wheel track of the vehicle,
A base station, BS, in a wireless communication system, the BS comprising: a transceiver; and a processor coupled with the transceiver and configured to: receive information of uplink transmissions, store the received information, perform , based on the received information, channel parameter tracking operations to generate channel parameters and a residual channel response, wherein the channel parameter tracking operations are configured with different configuration parameters, and perform , based on the channel parameters and the residual channel response, a channel coefficient prediction operation to generate channel state information, CSI, wherein the residual channel response comprises a difference between last uplink transmission of the uplink transmissions and a reconstructed channel at the last uplink transmission according to the channel parameters. a transceiver; and a processor coupled with the transceiver and configured to: receive information of uplink transmissions, store the received information, perform , based on the received information, channel parameter tracking operations to generate channel parameters and a residual channel response, wherein the channel parameter tracking operations are configured with different configuration parameters, and perform , based on the channel parameters and the residual channel response, a channel coefficient prediction operation to generate channel state information, CSI, receive information of uplink transmissions, store the received information, perform , based on the received information, channel parameter tracking operations to generate channel parameters and a residual channel response, wherein the channel parameter tracking operations are configured with different configuration parameters, and perform , based on the channel parameters and the residual channel response, a channel coefficient prediction operation to generate channel state information, CSI, wherein the residual channel response comprises a difference between last uplink transmission of the uplink transmissions and a reconstructed channel at the last uplink transmission according to the channel parameters.
A thin-plate modular horseshoe-type permanent magnet rotor for a motor, the rotor comprising: a main shaft ; a magnetically non-conductive shaft axially coupled to an outer circumference of the main shaft ; an iron core circumferentially divided into four equal parts and coupled to an outer circumferential surface of the magnetically non-conductive shaft ; first core fixing means for pressing and fixing both circumferential side ends of each part of the iron core to the magnetically non-conductive shaft along four boundaries of the iron core ; magnets attached to an outer surface of the iron core in eight radial directions; a pole plate core circumferentially divided into four equal parts coupled to surround the magnets , wherein each part of the pole plate core is coupled to magnets attached in two radial directions to two adjacent parts of the iron core ; second core fixing means for pressing and fixing both circumferential ends of each part of the pole plate core to the iron core , boundary guide pins consisting of plate members coupled to the iron core and the pole plate core to form a wall outside the first core fixing means in an axial direction. a main shaft ; a magnetically non-conductive shaft axially coupled to an outer circumference of the main shaft ; an iron core circumferentially divided into four equal parts and coupled to an outer circumferential surface of the magnetically non-conductive shaft ; first core fixing means for pressing and fixing both circumferential side ends of each part of the iron core to the magnetically non-conductive shaft along four boundaries of the iron core ; magnets attached to an outer surface of the iron core in eight radial directions; a pole plate core circumferentially divided into four equal parts coupled to surround the magnets , wherein each part of the pole plate core is coupled to magnets attached in two radial directions to two adjacent parts of the iron core ; second core fixing means for pressing and fixing both circumferential ends of each part of the pole plate core to the iron core , boundary guide pins consisting of plate members coupled to the iron core and the pole plate core to form a wall outside the first core fixing means in an axial direction.
A method , performed by a wireless communication device, comprising: determining , in a particular state, that the wireless communication device is performing a connection establishment procedure, characterized by : determining, before completion of the connection establishment procedure, that a second radio access technology, RAT, satisfies a set of transfer criteria associated with performing a transfer from a first RAT to the second RAT; and refraining , by the wireless communication device, from transferring from the first RAT to the second RAT until completing the connection establishment procedure despite determining that the second RAT satisfies the set of transfer criteria. determining, before completion of the connection establishment procedure, that a second radio access technology, RAT, satisfies a set of transfer criteria associated with performing a transfer from a first RAT to the second RAT; and refraining , by the wireless communication device, from transferring from the first RAT to the second RAT until completing the connection establishment procedure despite determining that the second RAT satisfies the set of transfer criteria.
Spray gun , in particular a paint spray gun, comprising at least one main body , a nozzle having at least one material nozzle , an air cap , a first air-conducting region and a second air-conducting region, wherein the first air-conducting region conducts air that is used to atomize material to be sprayed, and the second air-conducting region conducts air that is used to influence a spray jet, wherein the main body has at least one head region for attaching a nozzle arrangement, wherein the head region has at least one inner wall , one outer wall and one middle wall arranged therebetween, wherein the walls are formed circumferentially and as a single piece with the main body , wherein the front end of the middle wall is set back along an axis (Z) relative to the front end of the outer wall , and wherein the first air-conducting region and the second air-conducting region are separated from one another, at least in regions, by the middle wall of the main body , a disk element arranged as a single piece on the material nozzle , at least one baffle disk arranged, in particular nondetachably arranged, on the material nozzle , and by at least a part of the air cap , characterized in that the inner wall , the middle wall and the outer wall are each circular and arranged concentrically with one another.