mhurhangee/ep-ind-claims huggingface dataset:
A robotic working tool comprising a controller and at least a first and at least a second magnetic sensor arranged to sense a magnetic signal, wherein the controller is configured to: detect a first magnetic signal from either of the at least one first and at least one second magnetic sensor; determine a signal strength of the detected first magnetic signal; determine if the signal strength of the detected magnetic signal is above or below a threshold value, and wherein the robotic working tool is characterized in that if the signal strength is above the threshold value, the controller is configured to accept signal detection input for the first magnetic signal from a first set of sensors, and if the signal strength is below the threshold value, accept signal detection input for the first magnetic signal only from a second set of sensors, wherein the second set of sensors is a subset of the first set, wherein the at least one first magnetic sensor is comprised in the second set, and the at least first magnetic sensor and the at least one second magnetic sensor are comprised in the first set of sensors. detect a first magnetic signal from either of the at least one first and at least one second magnetic sensor; determine a signal strength of the detected first magnetic signal; determine if the signal strength of the detected magnetic signal is above or below a threshold value, and wherein the robotic working tool is characterized in that if the signal strength is above the threshold value, the controller is configured to accept signal detection input for the first magnetic signal from a first set of sensors, and if the signal strength is below the threshold value, accept signal detection input for the first magnetic signal only from a second set of sensors, wherein the second set of sensors is a subset of the first set, wherein the at least one first magnetic sensor is comprised in the second set, and the at least first magnetic sensor and the at least one second magnetic sensor are comprised in the first set of sensors.
Vehicle for the distribution of biosolid material, such as sewage sludge or defecation gypsum, or manure on agricultural land, said vehicle comprising: - a body adapted to contain the biosolid material and adapted to be transported on the agricultural land; - a spreader supported on at least one (21, 22) of the sides of the body, said spreader comprising picking means of the biosolid material from the body, conveying means of the biosolid material from the pickup means, said conveying means comprising an outlet mouth for the biosolid material towards the land; - member actuating means adapted to move the conveying means from a retracted position, in which the outlet mouth is spaced above the surface of the land, to an advanced position, in which the outlet mouth is adapted to be buried in the ground at a given depth or just above the surface of the land; characterized in that the spreader comprises a frame supported by opposite sides (21, 22) of the body, and in that said frame supports the picking means and the conveying means and in that the member actuating means are operatively connected to the frame to translate it in a vertical direction substantially perpendicular to the ground. - a body adapted to contain the biosolid material and adapted to be transported on the agricultural land; - a spreader supported on at least one (21, 22) of the sides of the body, said spreader comprising picking means of the biosolid material from the body, conveying means of the biosolid material from the pickup means, said conveying means comprising an outlet mouth for the biosolid material towards the land; - member actuating means adapted to move the conveying means from a retracted position, in which the outlet mouth is spaced above the surface of the land, to an advanced position, in which the outlet mouth is adapted to be buried in the ground at a given depth or just above the surface of the land;
Operating method for a crane, in particular a container crane, which has an upper load suspension point from which a load is suspended via a cable system so that the load can swing around the upper load suspension point, - wherein a control facility of the crane controls drives (4a, 4b) of the crane so that the upper load suspension point, and with it the load, are moved by the control facility in accordance with the actuation, - wherein the control facility dynamically determines an inner safety zone around the load repeatedly when moving the upper load suspension point as a function of state variables (x, v, 1, φ1, ω, vW) of the crane, - wherein the state variables (x, v, 1, φ1, ω, vW) comprise at least one position (x) of the upper load suspension point, one travel speed (v) of the upper load suspension point and one effective pendulum length of the load around the upper load suspension point, - wherein the control facility checks, on the basis of further information known from the control facility, whether an object different from the load is entering the inner safety zone, and - wherein, as soon as an object enters the inner safety zone, the control facility stops the movement of the upper load suspension point or outputs a message to an operator of the crane to stop the movement of the upper load suspension point, and otherwise maintains the movement of the upper load suspension point or does not output a message to the operator of the crane to stop the movement of the upper load suspension point. - wherein a control facility of the crane controls drives (4a, 4b) of the crane so that the upper load suspension point, and with it the load, are moved by the control facility in accordance with the actuation, - wherein the control facility dynamically determines an inner safety zone around the load repeatedly when moving the upper load suspension point as a function of state variables (x, v, 1, φ1, ω, vW) of the crane, - wherein the state variables (x, v, 1, φ1, ω, vW) comprise at least one position (x) of the upper load suspension point, one travel speed (v) of the upper load suspension point and one effective pendulum length of the load around the upper load suspension point, - wherein the control facility checks, on the basis of further information known from the control facility, whether an object different from the load is entering the inner safety zone, and - wherein, as soon as an object enters the inner safety zone, the control facility stops the movement of the upper load suspension point or outputs a message to an operator of the crane to stop the movement of the upper load suspension point, and otherwise maintains the movement of the upper load suspension point or does not output a message to the operator of the crane to stop the movement of the upper load suspension point.
A heat exchanger header comprising: a first inlet; a first passageway that fluidically connects the first inlet to a first outlet; a first wall defining the passageway; a second wall attached to the first wall opposite the first passageway; and a second inlet; wherein the first inlet extends through both the first wall and the second wall, a second passageway that fluidically connects the second inlet to a second outlet, wherein the first inlet, the first passageway, and the first outlet are fluidically isolated from the second inlet, the second passageway, and the second outlet, the second passageway is between the first wall and the second wall, the second passageway comprises at least one partition extending from the first wall to the second wall, and the at least one partition creates a channel within the second passageway that is configured to guide a flow from the second inlet to the second outlet; the heat exchanger header being characterised in that the second inlet extends through only the second wall, and in that an insulation layer is attached to the second wall opposite the first wall. a first inlet; a first passageway that fluidically connects the first inlet to a first outlet; a first wall defining the passageway; a second wall attached to the first wall opposite the first passageway; and a second inlet; wherein the first inlet extends through both the first wall and the second wall, a second passageway that fluidically connects the second inlet to a second outlet, wherein the first inlet, the first passageway, and the first outlet are fluidically isolated from the second inlet, the second passageway, and the second outlet, the second passageway is between the first wall and the second wall, the second passageway comprises at least one partition extending from the first wall to the second wall, and the at least one partition creates a channel within the second passageway that is configured to guide a flow from the second inlet to the second outlet; the heat exchanger header being characterised in that the second inlet extends through only the second wall, and in that an insulation layer is attached to the second wall opposite the first wall.
A method for manufacturing a structure comprising a first substrate comprising at least one electronic component likely to be damaged by a temperature higher than 400 °C and a semi-conductor layer extending on said first substrate, wherein the method comprises the following steps of: (a) providing a first bonding metal layer on the first substrate, (b) providing a second substrate comprising successively: - a semi-conductor base substrate, - a stack of a plurality of semi-conductor epitaxial layers, a layer of Si x Ge 1-x, with 0 ≤ x ≤ 1 being located at the surface of said stack opposite to the base substrate, - a second bonding metal layer, (c) bonding the first substrate and the second substrate through the first and second bonding metal layers (11, 22), said bonding step being carried out at a temperature lower than or equal to 400 °C, (d) removing a part of the second substrate so as to transfer the layer of Si x Ge 1-x on the first substrate, said removing comprising at least selectively chemically etching a layer of the second substrate relative to the Si x Ge 1-x layer. (a) providing a first bonding metal layer on the first substrate, (b) providing a second substrate comprising successively: - a semi-conductor base substrate, - a stack of a plurality of semi-conductor epitaxial layers, a layer of Si x Ge 1-x, with 0 ≤ x ≤ 1 being located at the surface of said stack opposite to the base substrate, - a second bonding metal layer, - a semi-conductor base substrate, - a stack of a plurality of semi-conductor epitaxial layers, a layer of Si x Ge 1-x, with 0 ≤ x ≤ 1 being located at the surface of said stack opposite to the base substrate, - a second bonding metal layer, (c) bonding the first substrate and the second substrate through the first and second bonding metal layers (11, 22), said bonding step being carried out at a temperature lower than or equal to 400 °C, (d) removing a part of the second substrate so as to transfer the layer of Si x Ge 1-x on the first substrate, said removing comprising at least selectively chemically etching a layer of the second substrate relative to the Si x Ge 1-x layer.
A method for manufacturing a carbonaceous luminescent material, comprising the step of mixing together and heating a polycarboxylic acid-containing starting material, an amino group-containing compound, an acid catalyst and a solvent, wherein the amino group-containing compound is selected from amino acids and amino group-containing polyalkylene glycols; and the acid catalyst is a homogeneous acid catalyst selected from hydrochloric acid, sulfuric acid, nitric acid, phosphoric acid, sulfonic acid and p-toluenesulfonic acid; or a heterogeneous acid catalyst which is a solid acid catalyst selected from cationic ion-exchange resins, cationic ionic-exchange membranes, zeolite and polyphosphoric acid. wherein the amino group-containing compound is selected from amino acids and amino group-containing polyalkylene glycols; and the acid catalyst is a homogeneous acid catalyst selected from hydrochloric acid, sulfuric acid, nitric acid, phosphoric acid, sulfonic acid and p-toluenesulfonic acid; or a heterogeneous acid catalyst which is a solid acid catalyst selected from cationic ion-exchange resins, cationic ionic-exchange membranes, zeolite and polyphosphoric acid.
A method of determining a downlink transmit power from a base station at a wireless terminal, the base station and the wireless terminal having a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols available for transmission, the method comprising: receiving a signaling parameter from the base station; and determining a first ratio of traffic data energy per resource element, EPRE, to reference signal, RS, EPRE for first OFDM symbols containing reference signal, RS, and a second ratio of traffic data EPRE to RS EPRE for second OFDM symbols not containing RS, wherein a ratio of the first ratio to the second ratio depends on the signalling parameter and the number of antennas configured in the base station, and wherein the ratio of the first ratio to the second ratio for one cell specific antenna is 1, 4/5, 3/5, or 2/5, respectively for the signalling parameter being 0, 1, 2, or 3, and wherein the ratio of the first ratio to the second ratio for 2 or 4 of cell specific antennas is 5/4, 1, 3/4, or 1/2, respectively for the signalling parameter being 0, 1, 2, or 3. receiving a signaling parameter from the base station; and determining a first ratio of traffic data energy per resource element, EPRE, to reference signal, RS, EPRE for first OFDM symbols containing reference signal, RS, and a second ratio of traffic data EPRE to RS EPRE for second OFDM symbols not containing RS, wherein a ratio of the first ratio to the second ratio depends on the signalling parameter and the number of antennas configured in the base station, and wherein the ratio of the first ratio to the second ratio for one cell specific antenna is 1, 4/5, 3/5, or 2/5, respectively for the signalling parameter being 0, 1, 2, or 3, and wherein the ratio of the first ratio to the second ratio for 2 or 4 of cell specific antennas is 5/4, 1, 3/4, or 1/2, respectively for the signalling parameter being 0, 1, 2, or 3.
A method for space-time-adaptive-processing for actively forming and directing a radiation null, using a conformal reflective phased array antenna, at an on-board receiver antenna located on a platform to reduce a multipath interference signal from an off-board transmitter source, the method comprising: coupling the conformal reflective phased array antenna to at least one surface (404, 600) of the platform; receiving a reflection signal from the at least one surface of the platform at a sensor near the receiver antenna, wherein reflection of the multipath interference signal off the at least one surface generates the reflection signal; computing angles of nulls of a nominal scatter field of the reflection signal; determining a closest null to an angle of the receiver antenna; and steering the reflection signal using the conformal reflective phased array antenna to direct the closest null onto the receiver antenna. coupling the conformal reflective phased array antenna to at least one surface (404, 600) of the platform; receiving a reflection signal from the at least one surface of the platform at a sensor near the receiver antenna, wherein reflection of the multipath interference signal off the at least one surface generates the reflection signal; computing angles of nulls of a nominal scatter field of the reflection signal; determining a closest null to an angle of the receiver antenna; and steering the reflection signal using the conformal reflective phased array antenna to direct the closest null onto the receiver antenna.
A rotationally driving mechanism comprising: a movable driven member that is coupled to a rotational shaft and is movable in a direction orthogonal to the rotational shaft; and a driving member, wherein the driven member includes a tapered portion in which a driven mechanism is disposed, characterized in that the driving member is fixedly disposed along a movement direction of the driven member, and the driving member includes an inclined portion which faces the tapered portion and in which a transmission mechanism is disposed; and the transmission mechanism is disposed to face a predetermined position of the driven mechanism in a rotational shaft direction, in accordance with a rotation speed required for a predetermined position of the driven member. a movable driven member that is coupled to a rotational shaft and is movable in a direction orthogonal to the rotational shaft; and a driving member, wherein
A nutritional composition selected from an infant formula or a yoghurt-like product, obtainable by fermenting a mixture comprising protein, carbohydrate and fat, wherein the largest fraction of the total protein by weight in said nutritional composition is potato protein, and wherein the mixture is fermented by lactic acid-producing bacteria.
Knitting needle for a knitting game for making knitted products having a round cross section with a first leg extending rigidly from a rigid shaft section in a first direction of extent to a first free end suitable for taking up stitches and a second leg extending from the rigid shaft section rigidly in a second direction of extent to a second free end suitable for taking up stitches, whereby the center of gravity of the knitting needle is arranged within the shaft section, characterized in that the first direction of extent and the second direction of extent form an angle relative to one another of at least 37° and less than 60°.
A multi-way valve assembly comprising: a valve housing having a plurality of fluid ports; a first valve member having one or more first flow channels defined therethrough and a first shaft, rotation of which causes rotation of the first valve member relative to the housing, the first valve member defining a cavity; a second valve member arranged within the cavity of the first valve member and having one or more second flow channels defined therethrough and a second shaft, rotation of which causes rotation of the second valve member relative to the housing; and a locking mechanism (23, 24, 26, 27) configured to, in a locked position, cause the second valve member to rotate with the first valve member relative to the housing and, in an unlocked position, to permit the second valve member to rotate relative to the first valve member and the housing; characterized in that the first valve member comprises two flow channels each defined between a respective inlet port and outlet port formed in said first valve member, and the second valve member includes a T-shaped fluid channel defined between three ports in said second valve member. a valve housing having a plurality of fluid ports; a first valve member having one or more first flow channels defined therethrough and a first shaft, rotation of which causes rotation of the first valve member relative to the housing, the first valve member defining a cavity; a second valve member arranged within the cavity of the first valve member and having one or more second flow channels defined therethrough and a second shaft, rotation of which causes rotation of the second valve member relative to the housing; and a locking mechanism (23, 24, 26, 27) configured to, in a locked position, cause the second valve member to rotate with the first valve member relative to the housing and, in an unlocked position, to permit the second valve member to rotate relative to the first valve member and the housing; characterized in that the first valve member comprises two flow channels each defined between a respective inlet port and outlet port formed in said first valve member, and the second valve member includes a T-shaped fluid channel defined between three ports in said second valve member.
A structure (120, 220) comprising: a die (106, 206) embedded in a coreless substrate (116, 216); a dielectric material (110, 210) adjacent the die (106, 206); die pad interconnect structures (112, 212) disposed in a die pad area of the die (106, 206); and at least one functionalized carrier structure (100', 200') disposed within the coreless substrate (116, 216); vias in the coreless substrate (116, 216) disposed in a non-die area that are connected to the functionalized carrier structure (100', 200'); and metallization layers (114, 114', 214, 214') disposed within the coreless substrate, wherein a first metallization layer is formed on the dielectric material (110, 210) adjacent the die (106, 206); wherein at least a portion of the metallization layers (114, 114', 214, 214') contact at least one via (113, 215) forming conductive path through the coreless substrate (116, 216); and wherein a top surface of the at least one functionalized carrier structure (100', 200') is coplanar with a top surface of the coreless substrate (116, 216) including the die (106, 206); wherein the functionalized carrier structure further comprises at least an inductor having a top surface coplanar with a top surface of the die; and wherein the vias connect the inductor electrically into the structure. a die (106, 206) embedded in a coreless substrate (116, 216); a dielectric material (110, 210) adjacent the die (106, 206); die pad interconnect structures (112, 212) disposed in a die pad area of the die (106, 206); and at least one functionalized carrier structure (100', 200') disposed within the coreless substrate (116, 216); vias in the coreless substrate (116, 216) disposed in a non-die area that are connected to the functionalized carrier structure (100', 200'); and metallization layers (114, 114', 214, 214') disposed within the coreless substrate, wherein a first metallization layer is formed on the dielectric material (110, 210) adjacent the die (106, 206); wherein at least a portion of the metallization layers (114, 114', 214, 214') contact at least one via (113, 215) forming conductive path through the coreless substrate (116, 216); and wherein a top surface of the at least one functionalized carrier structure (100', 200') is coplanar with a top surface of the coreless substrate (116, 216) including the die (106, 206); wherein the functionalized carrier structure further comprises at least an inductor having a top surface coplanar with a top surface of the die; and wherein the vias connect the inductor electrically into the structure.
A coupling member for quick and easy attachment and detachment of a firearm accessory to a muzzle of the firearm, the coupling member comprising a female member and a male member, characterized in that the female member is provided with a throughgoing bore, the female member further being provided with a number of successive threaded portions and unthreaded portions around a circumference of the throughgoing bore and wherein the male member around an outer circumference is provided with the same number of successive threaded portions and unthreaded portions as the female member, characterised in that each of the threaded portions and each of the unthreaded portions of the female member are equally displaced relative each other, and wherein each of the threaded portions and each of the unthreaded portions of the male member are equally displaced relative each other.