mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic radial tire for passenger cars, provided with a pair of bead portions, a carcass formed by a ply of radial cords toroidally extending between the bead portions, and a tread, comprising: a section width W and an outside diameter L such that a ratio W/L is 0.24 or less; a tread edge main groove that is an outermost main groove in at least half of a surface of the tread divided by a tire equatorial plane CL, the tread edge main groove being adjacent to a tread edge TE, separated from the tread edge TE in a tread width direction by a distance of at least 25% of a tread width TW, and extending in a tread circumferential direction; at least one transverse groove in an adjacent land portion adjacent to a tread edge land portion defined by the tread edge main groove and the tread edge TE, the transverse groove extending from the tread edge main groove in the tread width direction and terminating within the adjacent land portion, the at least one transverse groove being provided only on one half of the surface of the tread divided by the tire equatorial plane CL and not on the other half of the surface of the tread, the at least one transverse groove being provided on the outside of a vehicle in a vehicle-mounted tire; an auxiliary groove extending in the tread circumferential direction in the tread edge land portion within the half of the tread surface including the transverse groove; and a sidewall of the land portion defined by the tread edge TE and the auxiliary groove, the sidewall extending inwards in the tread width direction with increasing distance in the groove depth direction. a section width W and an outside diameter L such that a ratio W/L is 0.24 or less; a tread edge main groove that is an outermost main groove in at least half of a surface of the tread divided by a tire equatorial plane CL, the tread edge main groove being adjacent to a tread edge TE, separated from the tread edge TE in a tread width direction by a distance of at least 25% of a tread width TW, and extending in a tread circumferential direction; at least one transverse groove in an adjacent land portion adjacent to a tread edge land portion defined by the tread edge main groove and the tread edge TE, the transverse groove extending from the tread edge main groove in the tread width direction and terminating within the adjacent land portion, the at least one transverse groove being provided only on one half of the surface of the tread divided by the tire equatorial plane CL and not on the other half of the surface of the tread, the at least one transverse groove being provided on the outside of a vehicle in a vehicle-mounted tire; an auxiliary groove extending in the tread circumferential direction in the tread edge land portion within the half of the tread surface including the transverse groove; and a sidewall of the land portion defined by the tread edge TE and the auxiliary groove, the sidewall extending inwards in the tread width direction with increasing distance in the groove depth direction.
A catheter apparatus for intravascular modulation of renal nerves, the catheter apparatus comprising: an elongated shaft having a proximal portion and a distal portion, the distal portion of the shaft configured for intravascular delivery to a renal artery of a patient; a first ultrasound transducer associated with the distal portion of the shaft and configured to be positioned within an abdominal aorta; and a second ultrasound transducer associated with the distal portion of the shaft such that the second ultrasound transducer is spaced apart about 5mm to about 10cm from the first transducer in a distal direction, and wherein the second ultrasound transducer is configured to be positioned within the renal artery while the first ultrasound transducer is positioned in the abdominal aorta, wherein the first ultrasound transducer is configured to be positioned within an abdominal aorta when energy is delivered to the arterial wall by either the first ultrasound transducer or the second ultrasound transducer or simultaneously by the first ultrasound transducer and the second ultrasound transducer. an elongated shaft having a proximal portion and a distal portion, the distal portion of the shaft configured for intravascular delivery to a renal artery of a patient; a first ultrasound transducer associated with the distal portion of the shaft and configured to be positioned within an abdominal aorta; and a second ultrasound transducer associated with the distal portion of the shaft such that the second ultrasound transducer is spaced apart about 5mm to about 10cm from the first transducer in a distal direction, and wherein the second ultrasound transducer is configured to be positioned within the renal artery while the first ultrasound transducer is positioned in the abdominal aorta, wherein the first ultrasound transducer is configured to be positioned within an abdominal aorta when energy is delivered to the arterial wall by either the first ultrasound transducer or the second ultrasound transducer or simultaneously by the first ultrasound transducer and the second ultrasound transducer.
A method for transmitting data in multiuser multiple-input multiple-output, MIMO, systems in which a base station performs scheduling on the basis of feedback information comprising information referring to a respective precoding matrix and SNRs received from a plurality of terminals, comprising: determining, at the base station, at least one best terminal for each transmit antenna on the basis of the feedback SNRs of the terminals; calculating a sum rate obtainable with each precoding matrix from the feedback information, wherein the sum rate reflects a rate performance of the system; deciding a precoding matrix and terminals for each transmit antenna, which maximizing the sum rate; and performing transmission with the decided precoding matrix and terminals. determining, at the base station, at least one best terminal for each transmit antenna on the basis of the feedback SNRs of the terminals; calculating a sum rate obtainable with each precoding matrix from the feedback information, wherein the sum rate reflects a rate performance of the system; deciding a precoding matrix and terminals for each transmit antenna, which maximizing the sum rate; and performing transmission with the decided precoding matrix and terminals.
A control device for a machine tool which carries out processing by the relative movement of a tool with respect to a workpiece based on a processing program, comprising: a display part which displays an input screen for inputting or editing processing information related to processing the workpiece; and an input part for inputting at least one of letters and numbers into an item of the processing information in the input screen; wherein the display part, when one item of the processing information is selected in the input screen, displays a first input auxiliary screen corresponding to the one item, and characterised in that an input support button corresponding to the one item is provided on the first input auxiliary screen in order to support input; and a measurement tool information acquiring part is provided which acquires a measurement result of performing a measurement of the tool or the workpiece; wherein the display part displays a third input auxiliary screen when an input support button provided on the first input auxiliary screen is pressed, and further wherein an operation can be performed by repeatedly displaying the first input auxiliary screen and pressing the input support button until the measurement of the tool or the measurement of the workpiece is completed, and the measurement result of the tool of the workpiece is acquired and can be input into the one item of the input screen a display part which displays an input screen for inputting or editing processing information related to processing the workpiece; and an input part for inputting at least one of letters and numbers into an item of the processing information in the input screen; wherein the display part, when one item of the processing information is selected in the input screen, displays a first input auxiliary screen corresponding to the one item, and characterised in that an input support button corresponding to the one item is provided on the first input auxiliary screen in order to support input; and a measurement tool information acquiring part is provided which acquires a measurement result of performing a measurement of the tool or the workpiece; wherein the display part displays a third input auxiliary screen when an input support button provided on the first input auxiliary screen is pressed, and further wherein an operation can be performed by repeatedly displaying the first input auxiliary screen and pressing the input support button until the measurement of the tool or the measurement of the workpiece is completed, and the measurement result of the tool of the workpiece is acquired and can be input into the one item of the input screen
An apparatus for delivering a compound to an environment of use, said apparatus comprising: a base having an exteriorly disposed reservoir defining a center cavity, said reservoir for containing a compound; a compound permeable substrate having a substantially horizontal surface and at least one wick extending from the substrate into the reservoir, wherein, when a compound is disposed in the reservoir, the compound will be wicked from the reservoir onto the compound permeable substrate; a fan motor disposed in the center cavity; a centrifugal fan operatively associated with, and extending upward from, the fan motor; and a cover disposed over the centrifugal fan, said cover having at least one aperture on a top surface and providing a side air passage from the centrifugal fan to the environment. a base having an exteriorly disposed reservoir defining a center cavity, said reservoir for containing a compound; a compound permeable substrate having a substantially horizontal surface and at least one wick extending from the substrate into the reservoir, wherein, when a compound is disposed in the reservoir, the compound will be wicked from the reservoir onto the compound permeable substrate; a fan motor disposed in the center cavity; a centrifugal fan operatively associated with, and extending upward from, the fan motor; and a cover disposed over the centrifugal fan, said cover having at least one aperture on a top surface and providing a side air passage from the centrifugal fan to the environment.
A display substrate assembly, comprising a first substrate and a second substrate opposite to each other, the first substrate comprising a first region and a second region, and, a total thickness of functional layers (12, 13, 14, 15, 16) within the first region being less than a total thickness of functional layers (12, 13, 14, 15, 16) within the second region, of the first substrate; wherein, a thickness compensation layer is provided on the first substrate, a position of the thickness compensation layer corresponds to a position of the first region, and, a sum of thickness of a thickness of the thickness compensation layer and the total thickness of the functional layers (12, 13, 14, 15, 16) within the first region equals to a total thickness of the functional layers (12, 13, 14, 15, 16) within the second region; characterized in that, a plurality of spacer pads are provided above the first substrate; wherein the plurality of spacer pads are provided in the same layer with a source-drain layer but are not connected to the source-drain layer, wherein the thickness compensation layer comprises the plurality of spacer pads, such that the spacer pads are thickness compensation pads, wherein the thickness compensation pads are provided at locations corresponding to spacers provided on the second substrate.
A method performed by a data processing system, for generating support structures in a solid model that is used to produce a physical object via additive manufacturing comprising: 1.1 receiving a solid model, for a physical object to be manufactured, that includes a plurality of boundary representation (b-rep) surfaces; 1.2 analyzing the b-rep surfaces to generate point samples for potential support locations; 1.3 optimizing the support locations to minimise collisions with the solid model and the contact build plate, by identifying a cluster having a plurality of the generated point samples that are on a line for a potential line support and clustering points on the solid model, corresponding to at least some of the point samples, to create support locations from the identified clusters such that only a single one of the identified point samples of the identified cluster is used as a support location for a column support, where support locations are identified based on spacing between the points, the curvature of the b-rep surface, the local minimum and maximums of the b-rep surface slope; 1.4 generating column supports in the solid model that connect to the original solid model at the support locations; and 1.5 storing the solid model in at least one storage, including the generated column supports. 1.1 receiving a solid model, for a physical object to be manufactured, that includes a plurality of boundary representation (b-rep) surfaces; 1.2 analyzing the b-rep surfaces to generate point samples for potential support locations; 1.3 optimizing the support locations to minimise collisions with the solid model and the contact build plate, by identifying a cluster having a plurality of the generated point samples that are on a line for a potential line support and clustering points on the solid model, corresponding to at least some of the point samples, to create support locations from the identified clusters such that only a single one of the identified point samples of the identified cluster is used as a support location for a column support, where support locations are identified based on spacing between the points, the curvature of the b-rep surface, the local minimum and maximums of the b-rep surface slope; 1.4 generating column supports in the solid model that connect to the original solid model at the support locations; and 1.5 storing the solid model in at least one storage, including the generated column supports.
An electrolytic cell for the production of ammonia (NH 3), the electrolytic cell comprising (i) an electrolytic cell unit comprising a first electrode, a second electrode, and an electrolyte, (ii) a voltage generator, (iii) a supply of a dinitrogen (N 2) comprising fluid, and (iv) a supply of a water comprising fluid, wherein the voltage generator is configured to apply a negative potential to the first electrode and a positive potential to the second electrode, wherein the electrolyte is configured to allow transport of protons, wherein the first electrode is permeable for protons and non-permeable for O 2, N 2, NH 3 and H 2 O, wherein the first electrode is at first side in contact with the electrolyte and at second side is in fluid contact with the supply of the dinitrogen comprising fluid, and wherein the second electrode is permeable for protons, and non-permeable for O 2 and H 2 O, wherein the second electrode is at first side also in contact with the electrolyte, and at second side in fluid contact with the supply of the water comprising fluid, wherein the first electrode comprises one or more of Ni and Fe, and wherein the second electrode comprises nickel metal or an alloy of nickel, and wherein the first electrode has a thickness d1 in the range of 0.5-250 μm.
Container for a foodstuff preparation machine or beverage preparation machine, the container for containing beverage or foodstuff material and comprising a code encoding preparation information, the code comprising a data portion, the data portion comprising a plurality of data units; the container being characterised by: a reference portion, the reference portion comprising an arrangement of at least two reference units defining a reference point and a virtual reference line (r) extending from said reference point; the plurality of data units each being arranged on a virtual encoding line, the virtual encoding lines extending from the reference point and being each arranged at different angles (α) to the reference line (r), each data unit being arranged any distance (d) from the reference point, said distance (d) encoding a value of a parameter of the preparation information. a reference portion, the reference portion comprising an arrangement of at least two reference units defining a reference point and a virtual reference line (r) extending from said reference point; the plurality of data units each being arranged on a virtual encoding line, the virtual encoding lines extending from the reference point and being each arranged at different angles (α) to the reference line (r), each data unit being arranged any distance (d) from the reference point, said distance (d) encoding a value of a parameter of the preparation information.
An electronic device, comprising: a battery (435, 530); a display (440, 510, 630); a touch sensor (442, 620) configured to detect a touch on the display (440, 510, 630); a pressure sensor (444, 515, 640) disposed between the display (440, 510, 630) and the battery (435, 530) configured to detect a pressure on the display (440, 510, 630); and a processor, wherein the processor is configured to: obtain a pressure signal using the pressure sensor (444, 515, 640), identify, in response to the obtaining of the pressure signal, a touch position of a touch signal corresponding to the touch obtained through the touch sensor (442, 620), when the identified touch position of the touch signal corresponds with a pressure position of the obtained pressure signal, determine that the detected pressure is a touch pressure, when the identified touch position of the touch signal does not correspond with the pressure position, determine that the detected pressure is a swelling pressure, and adjust at least one characteristic related to charging of the battery (435, 530) based on the swelling pressure. a battery (435, 530); a display (440, 510, 630); a touch sensor (442, 620) configured to detect a touch on the display (440, 510, 630); a pressure sensor (444, 515, 640) disposed between the display (440, 510, 630) and the battery (435, 530) configured to detect a pressure on the display (440, 510, 630); and a processor, wherein the processor is configured to: obtain a pressure signal using the pressure sensor (444, 515, 640), identify, in response to the obtaining of the pressure signal, a touch position of a touch signal corresponding to the touch obtained through the touch sensor (442, 620), when the identified touch position of the touch signal corresponds with a pressure position of the obtained pressure signal, determine that the detected pressure is a touch pressure, when the identified touch position of the touch signal does not correspond with the pressure position, determine that the detected pressure is a swelling pressure, and adjust at least one characteristic related to charging of the battery (435, 530) based on the swelling pressure. obtain a pressure signal using the pressure sensor (444, 515, 640), identify, in response to the obtaining of the pressure signal, a touch position of a touch signal corresponding to the touch obtained through the touch sensor (442, 620), when the identified touch position of the touch signal corresponds with a pressure position of the obtained pressure signal, determine that the detected pressure is a touch pressure, when the identified touch position of the touch signal does not correspond with the pressure position, determine that the detected pressure is a swelling pressure, and adjust at least one characteristic related to charging of the battery (435, 530) based on the swelling pressure.
Vehicle tyre with at least one structural region which is formed in the region of at least one tyre shoulder and/or at least one tyre sidewall and has a base area which has an in particular smooth surface and on which a multiplicity of superficial depressions which are circular when seen from above are formed, characterized in that two depressions in each case are connected to one another in pairs by way of a connecting point that is narrowed in comparison with the diameter of the depressions and form elongated structural elements, which are in each case oriented in the circumferential direction of the tyre.
A respiratory gas supply device of a respiration-synchronization type to supply a respiratory gas in response to a respiratory cycle of a user comprising: a pressure sensor configured to measure pressure in a gas flow path, and a control unit configured to select one pressure gradient threshold from predetermined multiple pressure gradient thresholds which are smaller zero (A1,..., A4), wherein pressure gradient is the rate of temporal change of the pressure value, wherein the control unit is configured to judge a point at which a pressure gradient calculated from a signal of the pressure sensor becomes smaller than the one pressure gradient threshold selected as an inspiration sensing point and to supply the respiratory gas for a certain period of time from the inspiration sensing point (g), and is configured to switch the one pressure gradient threshold to any one of the multiple pressure gradient thresholds based on a frequency of the inspiration sensing point during a predetermined time. a pressure sensor configured to measure pressure in a gas flow path, and a control unit configured to select one pressure gradient threshold from predetermined multiple pressure gradient thresholds which are smaller zero (A1,..., A4), wherein pressure gradient is the rate of temporal change of the pressure value, wherein the control unit is configured to judge a point at which a pressure gradient calculated from a signal of the pressure sensor becomes smaller than the one pressure gradient threshold selected as an inspiration sensing point and to supply the respiratory gas for a certain period of time from the inspiration sensing point (g), and is configured to switch the one pressure gradient threshold to any one of the multiple pressure gradient thresholds based on a frequency of the inspiration sensing point during a predetermined time.
A method of communication, comprising: detecting an access terminal at a first access point; identifying a downlink carrier frequency on which the access terminal is actively receiving information from a second access point, wherein the second access point is a macro cell; and restricting transmission by the first access point on the identified downlink carrier frequency as a result of the detection of the access terminal, wherein the restriction of transmission comprises temporarily reducing transmit power used by the first access point on the identified downlink carrier frequency, and wherein a maximum transmit power value for the reduced transmit power is specified based on a measurement of received signal strength on an uplink carrier frequency and wherein the downlink carrier frequency corresponds to the uplink carrier frequency on which the received signal strength is measured. detecting an access terminal at a first access point; identifying a downlink carrier frequency on which the access terminal is actively receiving information from a second access point, wherein the second access point is a macro cell; and restricting transmission by the first access point on the identified downlink carrier frequency as a result of the detection of the access terminal, wherein the restriction of transmission comprises temporarily reducing transmit power used by the first access point on the identified downlink carrier frequency, and wherein a maximum transmit power value for the reduced transmit power is specified based on a measurement of received signal strength on an uplink carrier frequency and wherein the downlink carrier frequency corresponds to the uplink carrier frequency on which the received signal strength is measured.