mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection valve (10, 30, 70, 100) characterized by comprising: a nozzle body which is provided with an injection hole (12,32,72, 81, 91, 102) at a tip portion; a needle that is located slidably in the nozzle body and includes a seat portion which is seated on a seat position in the nozzle body; and air bubble generation means that generates air bubbles in a fuel flowing through the nozzle body, wherein in a case where a curvature radius is R, a length of a curve is L and a constant is a, an inner peripheral shape of the injection hole (12, 32, 72, 81, 91, 102) includes a curving part passing through a region surrounded by a clothoid curve which is expressed by R × L = a 2 and of which the constant a is 0.95 and an clothoid curve of which the constant a is 1.05 or a region surrounded by approximate curves of the clothoid curves at a cross-section surface along a direction of axis of the injection hole (12, 32, 72, 81, 91, 102), and the inner peripheral shape of the injection hole (12, 32, 72, 81, 91, 102) includes a curving part formed by connecting a clothoid curve or an approximate curve of a clothoid curve with a circular arc at the cross-section surface along the direction of axis of the injection hole (12, 32, 72, 81,91, 102). a nozzle body which is provided with an injection hole (12,32,72, 81, 91, 102) at a tip portion; a needle that is located slidably in the nozzle body and includes a seat portion which is seated on a seat position in the nozzle body; and air bubble generation means that generates air bubbles in a fuel flowing through the nozzle body, wherein in a case where a curvature radius is R, a length of a curve is L and a constant is a, an inner peripheral shape of the injection hole (12, 32, 72, 81, 91, 102) includes a curving part passing through a region surrounded by a clothoid curve which is expressed by R × L = a 2 and of which the constant a is 0.95 and an clothoid curve of which the constant a is 1.05 or a region surrounded by approximate curves of the clothoid curves at a cross-section surface along a direction of axis of the injection hole (12, 32, 72, 81, 91, 102), and the inner peripheral shape of the injection hole (12, 32, 72, 81, 91, 102) includes a curving part formed by connecting a clothoid curve or an approximate curve of a clothoid curve with a circular arc at the cross-section surface along the direction of axis of the injection hole (12, 32, 72, 81,91, 102).
An apparatus of a Radio Access Network, RAN, comprising at least one processor, at least one memory including computer program code, and the at least one processor, with the at least one memory and the computer program code, being arranged to cause the apparatus to at least perform the following steps: extracting from a first request message a requirement for a first resource of the apparatus for a service, wherein the request is received from a User Equipment, UE, and comprises a requirement indication, and the requirement indication indicates the requirement to be fulfilled for the service; determining a contribution of the first resource to the requirement for a case that a first part of the service is executed on the first resource; transmitting to a Control Plane, CP, of a Core Network, CN, a second request message for asking for a second resource for executing a second part of the service, wherein the second request message includes a contribution indication, the contribution indication indicates an allowable contribution to the requirement, and the allowable contribution comprises the requirement and the contribution of the first resource to the requirement. extracting from a first request message a requirement for a first resource of the apparatus for a service, wherein the request is received from a User Equipment, UE, and comprises a requirement indication, and the requirement indication indicates the requirement to be fulfilled for the service; determining a contribution of the first resource to the requirement for a case that a first part of the service is executed on the first resource; transmitting to a Control Plane, CP, of a Core Network, CN, a second request message for asking for a second resource for executing a second part of the service, wherein the second request message includes a contribution indication, the contribution indication indicates an allowable contribution to the requirement, and the allowable contribution comprises the requirement and the contribution of the first resource to the requirement.
A method for forming a semiconductor device, comprising: providing a substrate with recessed gates and deep trench capacitor devices surrounding a respective one of the recessed gates, wherein protrusions of the recessed gates and upper portions of the deep trench capacitor devices are revealed; forming spacers on sidewalls of the upper portions and the protrusions, wherein the spacers are formed outside the upper portion of the deep trench capacitor devices protruding from the substrate; forming portions of conductive material (134a, 134b) in spaces between the spacers; patterning the substrate, the spacers and the portions of conductive material (134a, 134b) to form parallel shallow trenches for defining active regions; forming a layer of dielectric material in the shallow trenches, wherein some of the portions of conductive material serve as bit line contacts; and forming word lines across the recessed gates, wherein at least one of the word lines comprises portions overlapping the recessed gates, at least one of the overlapped portions having a narrower width than at least one of the recessed gates. providing a substrate with recessed gates and deep trench capacitor devices surrounding a respective one of the recessed gates, wherein protrusions of the recessed gates and upper portions of the deep trench capacitor devices are revealed; forming spacers on sidewalls of the upper portions and the protrusions, wherein the spacers are formed outside the upper portion of the deep trench capacitor devices protruding from the substrate; forming portions of conductive material (134a, 134b) in spaces between the spacers; patterning the substrate, the spacers and the portions of conductive material (134a, 134b) to form parallel shallow trenches for defining active regions; forming a layer of dielectric material in the shallow trenches, wherein some of the portions of conductive material serve as bit line contacts; and forming word lines across the recessed gates, wherein at least one of the word lines comprises portions overlapping the recessed gates, at least one of the overlapped portions having a narrower width than at least one of the recessed gates.
A bath exhibiting a bath opening arranged in the area of a bath side, which can be locked or released with a door, which in the area of the upper bath edge and bath opening exhibits at least one assembly with which the door placed in the bath opening can be secured, wherein the door exhibits a supporting surface allocated to the assembly and extending under the latter, and wherein the assembly rigidly joined with the bath contains a locking element that acts on the door, characterized in that the bath opening exhibits an edge area staggered toward the exterior of the bath, wherein an abutment surface is provided in the direction toward the exterior, against which the door abuts in the locked position, that the lower part of the edge area incorporates at least one abutment element spaced a prescribed distance away from the abutment surface with the formation of a gap, which is adjusted to the thickness of the door in such a way that the edge of the door can be placed in the gap and swiveled around a prescribed angle into the bath interior, wherein the mentioned supporting surface can be swiveled under the assembly for locking the bath opening, and out of its field of action for releasing the bath opening.
A process comprising directing an energy beam (36; 56; 74) through a molten slag layer (30; 82) that is at least partially transmissive to the energy beam in order to melt a feed material (32; 42; 44; 78) for solidification and deposition onto a substrate (24; 58; 86) under the slag layer.
A method, comprising: receiving, at a mobile device, first configuration information from a first node in a coordinated multi-point, CoMP, set, wherein the CoMP set includes a plurality of nodes that collaborate to provide coordinated reception or transmission of data between the plurality of nodes and the mobile device, and wherein the first configuration information comprises a CoMP offset that boosts a transmit power for a sounding reference signal, SRS, when the SRS is transmitted for reception by the plurality of nodes in the CoMP set relative to a transmit power of the SRS when the SRS is transmitted in a single-node configuration; determining, by the mobile device, the transmit power for the SRS based at least in part on a physical uplink shared channel transmit power and the CoMP offset; and transmitting the SRS to one or more nodes in the plurality of nodes. receiving, at a mobile device, first configuration information from a first node in a coordinated multi-point, CoMP, set, wherein the CoMP set includes a plurality of nodes that collaborate to provide coordinated reception or transmission of data between the plurality of nodes and the mobile device, and wherein the first configuration information comprises a CoMP offset that boosts a transmit power for a sounding reference signal, SRS, when the SRS is transmitted for reception by the plurality of nodes in the CoMP set relative to a transmit power of the SRS when the SRS is transmitted in a single-node configuration; determining, by the mobile device, the transmit power for the SRS based at least in part on a physical uplink shared channel transmit power and the CoMP offset; and transmitting the SRS to one or more nodes in the plurality of nodes.
Vascular access port for providing subcutaneous access to a patient, the access port comprising a septum and a housing defining an aperture for capturing the septum, wherein the housing and septum define a reservoir, the septum configured to be repeatedly pierced or punctured with a needle, the access port configured for power-injection and comprising an identification feature, such that the subcutaneously implanted access port is identifiable as power-injectable in response to radiographically perceiving the identification feature, the identification feature comprising a metal feature a size and/or shape of which is selectively tailored for identification of the access port as power-injectable. the access port configured for power-injection and comprising an identification feature, such that the subcutaneously implanted access port is identifiable as power-injectable in response to radiographically perceiving the identification feature, the identification feature comprising a metal feature a size and/or shape of which is selectively tailored for identification of the access port as power-injectable.
A service takeover method, wherein the method is applied to a storage system, the storage system comprises a first storage device (11, 110), a second storage device (12, 120), and a quorum server, data communication is performed between the first storage device and the second storage device by using a link, the first and second storage devices synchronizing data between them using the link to maintain consistency of stored data, and the method is performed by the first storage device (11, 110), comprising: a) obtaining a running status of the first storage device when determining that a communication fault occurs on the link between the first storage device and the second storage device, wherein the running status reflects current usage of a system resource of the first storage device, and the system resource comprises at least one or any combination of the following resources: a processor resource, a hard disk resource, a cache resource, or a host bandwidth resource; b) determining delay duration according to the running status, wherein the delay duration is a duration for which the first storage device waits before sending an arbitration request to the quorum server; and c) sending, after the delay duration, the arbitration request to the quorum server to request to take over a storage access service. a) obtaining a running status of the first storage device when determining that a communication fault occurs on the link between the first storage device and the second storage device, wherein the running status reflects current usage of a system resource of the first storage device, and the system resource comprises at least one or any combination of the following resources: a processor resource, a hard disk resource, a cache resource, or a host bandwidth resource; b) determining delay duration according to the running status, wherein the delay duration is a duration for which the first storage device waits before sending an arbitration request to the quorum server; and c) sending, after the delay duration, the arbitration request to the quorum server to request to take over a storage access service.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements (41, 43), a layer of rubber compound being arranged between at least the ends of said at least two working crown layers (41, 43), said crown reinforcement being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the tensile modulus of elasticity at 10% elongation of the layer being greater than 9 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ) max, of the layer being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one obliquely-oriented cut, in that the depth, measured on a new tyre in at least said central part, of said at least one obliquely-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one obliquely-oriented cut to the width (d S) measured at the surface of the tread on a new tyre of said at least one obliquely-oriented cut is greater than 1.2.
An electromechanical transducer (1, 21, 28) having a layered structure comprising, in this order: - a first layer which has, in at least one plane, at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, - a second layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a third layer (13, 22) comprising an electromechanical functional element, - a fourth layer (15, 23) serving as an adhesive layer, which is electrically conductive at least at certain points, - a fifth layer (17, 24) having in at least one plane at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, characterized in that the first layer and/or the fifth layer (17, 24) has or have an electrical contact exposed on its outer side (9, 25). - a first layer which has, in at least one plane, at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, - a second layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a third layer (13, 22) comprising an electromechanical functional element, - a fourth layer (15, 23) serving as an adhesive layer, which is electrically conductive at least at certain points, - a fifth layer (17, 24) having in at least one plane at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield,
Flexible piping for capturing the accidental pressurized fluid leaks from a damaged pipeline, which comprises a number n of flexible strips, each provided with at least one layer of heat shrinkable materials in which there are incorporated some networks of independent electrical heating resistances, together with some reinforcing inserts, on the lateral sides of two adjacent strips there being mounted some toothed rails (7 and 8) of a fluid tight zipper (B and C), characterized in that said toothed rails (7 and 8) arranged one in the extension of the other on each margin belong to two antagonistic fluid tight zippers (B and C), driven by means of some robotic closing sliders (9 and 10), with electromechanical actuators incorporated, and at both ends of each strip there are mounted some internal magnetic inserts (16 and 17) and some inserts (18 and 19) made up of a shape memory material which generates a transverse curvature of the strips by the application of a command transmitted by means of an electric or thermal impulse.
A multi-station concurrent testing method, including a control station, a plurality of testing stations (Site1, Site2, Site3, Site4) which are respectively in communication connection with the control station, and a handler in communication connection with the control station, wherein different testing stations (Site1, Site2, Site3, Site4) are configured to test a part of parameters of devices under test and provide the parameters to the control station, and the handler is configured for conveying the devices under test to be placed at the testing stations (Site1, Site2, Site3, Site4) in sequence, characterised in the method comprising: a step A in which the control station controls the handler to send Start of Test SOT signal(s) of corresponding testing station(s) (Site1, Site2, Site3, Site4) based on previous testing results at adjacent testing stations of the testing stations (Site1, Site2, Site3, Site4); a step B in which the control station constructs an SOT signal sequence based on the received SOT signal(s) and in correspondence to orders of the testing stations (Sitel, Site2, Site3, Site4); and a step C in which the control station compares the SOT signal sequence and an SOT signal prediction value sequence generated by the control station, wherein if the SOT signal sequence and the SOT signal prediction value sequence match, the corresponding testing station(s) (Site1, Site2, Site3, Site4) executes the test of device(s) under test, and otherwise, the handler is controlled to purge the devices under test at the testing stations (Sitel, Site2, Site3, Site4), wherein the SOT signal prediction value sequence is generated based on previous testing results at the testing stations (Sitel, Site2, Site3, Site4). a step A in which the control station controls the handler to send Start of Test SOT signal(s) of corresponding testing station(s) (Site1, Site2, Site3, Site4) based on previous testing results at adjacent testing stations of the testing stations (Site1, Site2, Site3, Site4); a step B in which the control station constructs an SOT signal sequence based on the received SOT signal(s) and in correspondence to orders of the testing stations (Sitel, Site2, Site3, Site4); and a step C in which the control station compares the SOT signal sequence and an SOT signal prediction value sequence generated by the control station, wherein if the SOT signal sequence and the SOT signal prediction value sequence match, the corresponding testing station(s) (Site1, Site2, Site3, Site4) executes the test of device(s) under test, and otherwise, the handler is controlled to purge the devices under test at the testing stations (Sitel, Site2, Site3, Site4), wherein the SOT signal prediction value sequence is generated based on previous testing results at the testing stations (Sitel, Site2, Site3, Site4).
A food additive for farm animal or pet feeds comprising a composition of a mixture of food acids and a mixture of essential oils, characterized in that the mixture of food acids is present in a percentage by weight equal to 94.45% with respect to the total weight of the composition and wherein the mixture of food acids consists of: 89.45% acetic acid; and 5% citric acid; wherein the percentages are percentages by weight with respect to the total weight of the composition.
A load control apparatus that controls a drive and a stop of a load by switching on and off a field effect transistor which is provided between a DC power supply and the load, wherein a drain electrode of the field effect transistor is connected to a plus electrode of the DC power supply via a power supply line, and a source electrode of the field effect transistor is connected to one end of the load via a load line, and the other end of the load is connected to a minus electrode of the DC power supply, the load control apparatus comprising: a comparing unit that is configured to detect an overcurrent by comparing a reference voltage based on a drain voltage of the field effect transistor and a source voltage of the field effect trarisistor; and a control unit (SW1, 11, 12) that is configured to output a drive signal to the gate electrode of the field effect transistor when the load is to be driven, and also to stop output of the drive signal when the overcurrent is detected by the comparing unit; characterized by a first capacitor that is provided between the drain electrode of the field effect transistor and the minus electrode of the DC power supply; and a second capacitor that is provided between the gate electrode and the drain electrode of the field effect transistor. a comparing unit that is configured to detect an overcurrent by comparing a reference voltage based on a drain voltage of the field effect transistor and a source voltage of the field effect trarisistor; and a control unit (SW1, 11, 12) that is configured to output a drive signal to the gate electrode of the field effect transistor when the load is to be driven, and also to stop output of the drive signal when the overcurrent is detected by the comparing unit; characterized by a first capacitor that is provided between the drain electrode of the field effect transistor and the minus electrode of the DC power supply; and a second capacitor that is provided between the gate electrode and the drain electrode of the field effect transistor.
An air data probe (10;26;42) comprising: an air data probe body (12;28;44); and an additively manufactured heater on the air data probe body; and characterized in that the heater comprises: a first heater layer on the air data probe body; and a first dielectric layer on the first heater layer; and in that the air data probe body is non-metallic. an air data probe body (12;28;44); and an additively manufactured heater on the air data probe body; and characterized in that the heater comprises: a first heater layer on the air data probe body; and a first dielectric layer on the first heater layer; and in that the air data probe body is non-metallic.