mhurhangee/ep-ind-claims huggingface dataset:
Dispensing device for dispensing a liquid fertiliser by means of a pump device via a dispensing nozzle, wherein a first container for a first fertiliser component and at least one second container (14b, 14c) for a second fertiliser component are provided, wherein a dosing line and a dosing pump, via which the respective fertiliser component can be fed to a mixing device, are assigned to each container, and wherein the mixing device is configured to mix the fertiliser components, wherein the mixing device is connected upstream of the pump device, and wherein the dispensing device can be worn by a gardener or farmer and is configured with a battery for electrical power supply. wherein a first container for a first fertiliser component and at least one second container (14b, 14c) for a second fertiliser component are provided, wherein a dosing line and a dosing pump, via which the respective fertiliser component can be fed to a mixing device, are assigned to each container, and wherein the mixing device is configured to mix the fertiliser components, wherein the mixing device is connected upstream of the pump device, and wherein the dispensing device can be worn by a gardener or farmer and is configured with a battery for electrical power supply.
Polymer compositions containing one or more silane-containing copolymers and one or more hydrophobicizing additives, where the hydrophobicizing additives are based on silica, one or more silicone resins and one or more functionalized alkylalkoxysilanes whose alkyl groups bear at least one amino, carboxyl, epoxy or hydroxy group, characterized in that the silane-containing copolymers are based on ethylenically unsaturated monomers and contain monomer units of ethylenically unsaturated silanes.
A method comprising: receiving a signal that includes a desired signal component and an interference signal component, the desired signal component including a training sequence and a first data field followed by said training sequence followed by a second data field (82, 86); demodulating the training sequence and a corresponding portion of the interference signal component using a joint detection Viterbi algorithm to evaluate possible transmitted training sequences and interference signal sequences, and generate channel estimations for the desired signal component and the interference signal component; and demodulating (148, 150) the two data fields (82, 86) according to the joint detection Viterbi algorithm using the channel estimations as initial channel estimates for the joint detection Viterbi algorithm, characterized in that demodulating the training sequence comprises: splitting the training sequence into a first portion and a second portion, and applying the joint detection Viterbi algorithm, combined with a Channel Impulse Response estimation algorithm, to a first portion of the training sequence to obtain a first channel estimation for the desired signal component and the interference signal component, and applying the joint detection Viterbi algorithm, combined with a Channel Impulse Response estimation algorithm, to a second portion of the training sequence to obtain a second channel estimation for the desired signal component and the interference signal component. receiving a signal that includes a desired signal component and an interference signal component, the desired signal component including a training sequence and a first data field followed by said training sequence followed by a second data field (82, 86); demodulating the training sequence and a corresponding portion of the interference signal component using a joint detection Viterbi algorithm to evaluate possible transmitted training sequences and interference signal sequences, and generate channel estimations for the desired signal component and the interference signal component; and demodulating (148, 150) the two data fields (82, 86) according to the joint detection Viterbi algorithm using the channel estimations as initial channel estimates for the joint detection Viterbi algorithm, splitting the training sequence into a first portion and a second portion, and applying the joint detection Viterbi algorithm, combined with a Channel Impulse Response estimation algorithm, to a first portion of the training sequence to obtain a first channel estimation for the desired signal component and the interference signal component, and applying the joint detection Viterbi algorithm, combined with a Channel Impulse Response estimation algorithm, to a second portion of the training sequence to obtain a second channel estimation for the desired signal component and the interference signal component.
A method used by a wireless transmit/receive unit, WTRU, for wireless communications, the method comprising: receiving, from a network node of an access network, a request to transition from a radio resource control, RRC, connected state to a RRC inactive state and context information indicating one or more_logical channels, LCHs or radio bearers, that remain available for uplink, UL, transmission while in the RRC inactive state; transitioning to the RRC inactive state with respect to the network node; and on condition that the WTRU is in the RRC Inactive state, UL data associated with the indicated one or more LCHs or radio bearers becomes available for transmission, and the UL data satisfies a criterion that a total amount of the UL data is less than a threshold, transmitting the UL data and an identity of the WTRU while in the RRC inactive state. receiving, from a network node of an access network, a request to transition from a radio resource control, RRC, connected state to a RRC inactive state and context information indicating one or more_logical channels, LCHs or radio bearers, that remain available for uplink, UL, transmission while in the RRC inactive state; transitioning to the RRC inactive state with respect to the network node; and on condition that the WTRU is in the RRC Inactive state, UL data associated with the indicated one or more LCHs or radio bearers becomes available for transmission, and the UL data satisfies a criterion that a total amount of the UL data is less than a threshold, transmitting the UL data and an identity of the WTRU while in the RRC inactive state.
A method of manufacturing a semiconductor structure, comprising: providing (S1 10) a substrate with a trench; forming a first conductive layer in the trench, top of the first conductive layer being lower than top of the trench; forming a dielectric layer on the first conductive layer; and forming a second conductive layer on the dielectric layer; characterized in that, the dielectric layer is an equipotential dielectric layer, the equipotential dielectric layer is configured to cause potential of the first conductive layer equal to potential of the second conductive layer; and the equipotential dielectric layer has a thickness less than 20nm; wherein the equipotential dielectric layer has a blocking effect, preventing the conductive materials in the first conductive layer from diffusing into the second conductive layer, while having a thin thickness, such that electrons are enabled to pass through, by a tunneling effect, a potential barrier formed by the equipotential dielectric layer and thus, the first conductive layer and the second conductive layer are connected to form an equipotential. providing (S1 10) a substrate with a trench; forming a first conductive layer in the trench, top of the first conductive layer being lower than top of the trench; forming a dielectric layer on the first conductive layer; and forming a second conductive layer on the dielectric layer; characterized in that, the dielectric layer is an equipotential dielectric layer, the equipotential dielectric layer is configured to cause potential of the first conductive layer equal to potential of the second conductive layer; and the equipotential dielectric layer has a thickness less than 20nm; wherein the equipotential dielectric layer has a blocking effect, preventing the conductive materials in the first conductive layer from diffusing into the second conductive layer, while having a thin thickness, such that electrons are enabled to pass through, by a tunneling effect, a potential barrier formed by the equipotential dielectric layer and thus, the first conductive layer and the second conductive layer are connected to form an equipotential.
A sealing means with a spray nozzle assembly comprising a nozzle cap and an orifice disc formed from tungsten carbide, the orifice disc comprising an outlet face that is directed towards a lower face of an inner periphery of the nozzle cap, wherein said sealing means comprises a groove at least partially accommodating a compressive seal in the surface of the outlet face of said orifice disc, wherein the groove is located away from either edge of the outlet face of the orifice disc and wherein the orifice disc comprises armour configured to reinforce the orifice disc. wherein the groove is located away from either edge of the outlet face of the orifice disc and wherein the orifice disc comprises armour configured to reinforce the orifice disc.
An SRAM memory device comprising: a local section bit line including: a plurality of sectioned bit lines, SBLs, each comprising: a local bit line; one or more memory cells connected to the local bit line; a local complement bit line connected to the memory cells; and a pass gate coupled to the local bit line; a local sense amplifier; a local shared data driver that drives a local data line, characterized in that the local shared data driver is separate from the local sense amplifier and connected to the local bit line via a write pass gate (415, 425); and a global bit line; wherein the local sense amplifier is configured to amplify a signal on a local sense line and provide an output to the global bit line; and wherein the local sense line is provided between the local bit line and the global bit line. a local section bit line including: a plurality of sectioned bit lines, SBLs, each comprising: a local bit line; one or more memory cells connected to the local bit line; a local complement bit line connected to the memory cells; and a pass gate coupled to the local bit line; a local sense amplifier; a local shared data driver that drives a local data line, characterized in that the local shared data driver is separate from the local sense amplifier and connected to the local bit line via a write pass gate (415, 425); and a global bit line; a plurality of sectioned bit lines, SBLs, each comprising: a local bit line; one or more memory cells connected to the local bit line; a local complement bit line connected to the memory cells; and a pass gate coupled to the local bit line; a local bit line; one or more memory cells connected to the local bit line; a local complement bit line connected to the memory cells; and a pass gate coupled to the local bit line; a local sense amplifier; a local shared data driver that drives a local data line, characterized in that the local shared data driver is separate from the local sense amplifier and connected to the local bit line via a write pass gate (415, 425); and a global bit line; wherein the local sense amplifier is configured to amplify a signal on a local sense line and provide an output to the global bit line; and wherein the local sense line is provided between the local bit line and the global bit line.
A device comprising: a camera configured to obtain an image; an electromagnetic radiation sensor configured to produce ultra-violet, UV, light data and infrared, IR, light data associated with the image; a sensor processor configured to determine an illuminant type probability from probability data using the UV light data and the IR light data, wherein the probability data includes a ratio probability relationship providing probabilities for ratio values of a ratio of the UV light data and the IR light data, the illuminant type probability indicating a level of confidence that a light source associated with the image is a particular illuminant type; and an auto-white balance unit configured to adjust auto-white balance based on the illuminant type probability. a camera configured to obtain an image; an electromagnetic radiation sensor configured to produce ultra-violet, UV, light data and infrared, IR, light data associated with the image; a sensor processor configured to determine an illuminant type probability from probability data using the UV light data and the IR light data, wherein the probability data includes a ratio probability relationship providing probabilities for ratio values of a ratio of the UV light data and the IR light data, the illuminant type probability indicating a level of confidence that a light source associated with the image is a particular illuminant type; and an auto-white balance unit configured to adjust auto-white balance based on the illuminant type probability.
A dual mass flywheel, comprising a primary part and a secondary part which can be rotated to a limited extent in relation to one another about an axis of rotation, a spring damper arrangement comprising torsion springs, which is effective between the primary part and the secondary part, a friction device (20, 37) having at least one spring tension loaded friction ring (21, 22; 38, 39) as well as a centrifugal pendulum-type absorber associated with the secondary part, the integrally formed secondary part forming outer flange sections cooperating with the torsion springs as well as an output hub, and a retaining element (16, 33) being arranged on the primary part, via which a centring (15, 32) of the secondary part is achieved, and the dual mass flywheel (1, 31) is covered on the output side by a thin-walled plate (9, 42), the centring (15, 32) of the secondary part comprising at least one potted retention element (16, 33) which is screwed together with the primary part to a crankshaft flange, characterized in that locally angled sections of the retention element forming a centring diameter D are guided through recesses in the secondary part, which form toothing profiles (50, 51) at the ends, into which radially aligned disc spring tongues (46, 56) of a disc spring engage.
An apparatus for establishing an access tract from a first body lumen to a second body lumen, comprising a guidewire having a guidewire body having an expansible anchor at or near its distal end, wherein the anchor is configured to be deployed within the second body lumen and to be pulled proximally to draw the wall of the second body lumen against the wall of the first body lumen, wherein the anchor is symmetric and adapted to engage the wall of the second body lumen around an interface or lip which is generally circular and concentric with the access tract, wherein the guidewire body has a length in the range from 150 to 250 cm, and an outside diameter, at least at the distal end, in the range from 0.4 mm to 5 mm, wherein the guidewire body comprises a hollow center, wherein the anchor is disposed near the distal end of the guidewire body and expandable from a contracted configuration, which conforms closely to the exterior of the guidewire body, to an expanded configuration, characterized in that the expanded configuration will have a width or diameter at least four times as the diameter of the guidewire body, and that the anchor is a radially expanding braid.
Device for providing a sizeable, slender object, such as a monopile of a wind turbine, having a longitudinal direction into an underwater bottom from a deck of a vessel, the device comprising: - a lifting means configured to take up the object at a lifting point thereof and position it on the underwater bottom; - an upending tool connected to an edge of the vessel and configured to engage a first circumferential part and support the object in the longitudinal direction when suspended from the lifting means, thereby providing a pivot around which the object can be upended; and - a gripping tool connected to an edge of the vessel and configured to engage a second circumferential part of the object suspended from the lifting means, whereby the first and second circumferential parts (4a, 4b) are optionally spaced apart in the longitudinal direction of the object, characterized in that the device further comprises - an actuator system configured to act on at least one of the upending tool and the gripping tool and control movements of at least one of the first and the second circumferential parts (4a, 4b), relative to the vessel, wherein the control at least comprises damping of the movements of the at least one of the first and the second circumferential parts (4a, 4b), relative to the vessel; and in that - the upending tool is further equipped with means for supporting a lower end of the object in a suspended position, wherein the upending tool and the gripping tool are aligned in the longitudinal direction. - a lifting means configured to take up the object at a lifting point thereof and position it on the underwater bottom; - an upending tool connected to an edge of the vessel and configured to engage a first circumferential part and support the object in the longitudinal direction when suspended from the lifting means, thereby providing a pivot around which the object can be upended; and - a gripping tool connected to an edge of the vessel and configured to engage a second circumferential part of the object suspended from the lifting means, whereby the first and second circumferential parts (4a, 4b) are optionally spaced apart in the longitudinal direction of the object, characterized in that the device further comprises - an actuator system configured to act on at least one of the upending tool and the gripping tool and control movements of at least one of the first and the second circumferential parts (4a, 4b), relative to the vessel, wherein the control at least comprises damping of the movements of the at least one of the first and the second circumferential parts (4a, 4b), relative to the vessel; and in that - the upending tool is further equipped with means for supporting a lower end of the object in a suspended position,
A pressure detection device comprising: a pressure detection element which receives pressure so as to output a detection signal (Qi) corresponding to the pressure; and a processing circuit which processes and outputs the detection signal output from the pressure detection element, wherein on a circuit board on which a conductor pattern is formed, an integrated circuit including an analog circuit which uses a reference voltage (Vr) set to a predetermined voltage value as an operation reference and which converts the detection signal into a voltage waveform is mounted, and the processing circuit includes an input circuit which feeds the detection signal to the integrated circuit and a shield pattern which surrounds a region of at least a part of the input circuit and to which the reference voltage is applied; and the integrated circuit includes at least an input terminal (LA-IN) from which the detection signal (Qi) is input and a shield terminal (L-SH1) adjacent to the input terminal, wherein the shield terminal is connected to the reference voltage through a protective resistor within the integrated circuit. a pressure detection element which receives pressure so as to output a detection signal (Qi) corresponding to the pressure; and a processing circuit which processes and outputs the detection signal output from the pressure detection element, wherein on a circuit board on which a conductor pattern is formed, an integrated circuit including an analog circuit which uses a reference voltage (Vr) set to a predetermined voltage value as an operation reference and which converts the detection signal into a voltage waveform is mounted, and the processing circuit includes an input circuit which feeds the detection signal to the integrated circuit and a shield pattern which surrounds a region of at least a part of the input circuit and to which the reference voltage is applied; and the integrated circuit includes at least an input terminal (LA-IN) from which the detection signal (Qi) is input and a shield terminal (L-SH1) adjacent to the input terminal, wherein the shield terminal is connected to the reference voltage through a protective resistor within the integrated circuit.
A Halbach magnetic array (502, 503, 801, 802, 803, 804, 901, 902) comprising a plurality of first and second magnetic units alternately arranged and immediately adjacent to each other in a Y direction of the array, wherein each of the plurality of first magnetic units comprises first magnetic groups (505, 507, 511, 512, 600, 603) and first magnetic columns (506, 508, 509, 510, 601, 602) alternately arranged and immediately adjacent to each other in an X direction of the array, each of the first magnetic groups (505, 507, 511, 512, 600, 603) includes four first magnetic bars arranged in a 2*2 matrix; each of the plurality of second magnetic units comprises second magnetic groups (505, 507, 511, 512, 600, 603) and second magnetic columns (506, 508, 509, 510, 601, 602) alternately arranged and immediately adjacent to each other in the X direction of the array, each of the second magnetic groups (505, 507, 511, 512, 600, 603) includes four second magnetic bars arranged in a 2*2 matrix; each of the first magnetic columns (506, 508, 509, 510, 601, 602) is magnetized in a Z direction of the array, and each of the second magnetic columns (506, 508, 509, 510, 601, 602) is magnetized in a direction opposite to the Z direction of the array, each magnetic bar in the first and second magnetic groups (505, 507, 511, 512, 600, 603) has a magnetization direction along a diagonal thereof, and the magnetization directions of the four magnetic bars in a same magnetic group have components along the Z direction pointing towards a same direction and components in a plane defined by the Y and X directions pointing towards different directions.
Method for cooling an aluminium alloy rolling ingot of typical dimensions, 250 to 800mm thick, 1000 to 2000mm wide and 2000 to 8000mm long, after metallurgic homogenising heat treatment of said ingot at a temperature typically between 450 to 600°C according to the alloys and before it is hot rolled, the cooling being of a value of 30 to 150°C, characterised in that the cooling is carried out at a speed of 150 to 500°C/h, with a thermal differential of less than 40°C over the entire ingot cooled from the homogenisation temperature thereof.
A re-configurable magnetoinductive waveguide, comprising a plurality of resonator cells, wherein each resonator cell comprises a primary resonator that is inductively coupled to a primary resonator of at least one other resonator cell, and wherein at least one of the plurality of resonator cells is a controllable cell which further comprises a control element, the control element having an active control component that is operable to adjust the impedance of the primary resonator of the controllable cell in response to a control signal; wherein: the control element comprises a secondary resonator, the secondary resonator is inductively coupled to the primary resonator, and the active control component is arranged to vary the electrical properties of the secondary resonator in response to the control signal.
A compound of the general formula I: or a pharmaceutically acceptable salt thereof, wherein R1, R2, R3, R4, R5, R6, R7, R8, R9, R10 are the same or different and are independently selected from -NH2, -NO2, -CH3, -CH2NH2-, -F, -Cl, -Br, -I, -CF 3,-OCH3, -C2H5, -H, primary, secondary, or tertiary alkyl groups, aryl groups, alkenyl groups, alkynyl groups, heterocyclic groups, heterocyclylalkyl groups, alkoxyalkyl groups, aryloxyalkyl groups, heterocyclyloxyalkylgroups; X is CH or N.