mhurhangee/ep-ind-claims huggingface dataset:
A pieces separator configured to receive and separate pieces at the output of a machine tool, comprising: - a belt conveyor, on which the pieces are received at the outlet of the machine tool, - at least two locations for receptacles in which the received pieces are intended to be distributed, characterised in that it comprises at least one ejector, comprising: * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor, * actuators (9, 11, 13, 19), configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor, and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor, so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor, the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles, the pieces ejected from the other side of the conveyor belt being able to be collected in the other receptacle. - a belt conveyor, on which the pieces are received at the outlet of the machine tool, - at least two locations for receptacles in which the received pieces are intended to be distributed, characterised in that it comprises at least one ejector, comprising: * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor, * actuators (9, 11, 13, 19), configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor, and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor, so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor, the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles, * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor, * actuators (9, 11, 13, 19), configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor, and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor, so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor, the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles, the pieces ejected from the other side of the conveyor belt being able to be collected in the other receptacle.
A compressor for supercharging an internal combustion engine with a compressor housing having a diffuser duct and a diffuser, and also with a compressor impeller, rotatably mounted in an inlet duct of the compressor housing, and an entry face, arranged upstream from the diffuser duct, to an annular duct which is arranged largely concentrically to the inlet duct, and an exit face arranged upstream from the annular duct, and a space provided in the compressor housing for cooling medium to pass through, wherein the space is an annular space which surrounds the annular duct at least along a partial region of its longitudinal extent running in the longitudinal direction of the inlet duct, characterised in that the compressor comprises a housing in the shape of a tube piece which receives the inlet duct and the entry face and also the exit face and can be introduced into an annular space of the compressor housing in such a way that an exit face of the inlet duct lies against an entry face in the diffuser duct.
Method for transferring a two-dimensional material onto a target substrate by means of a free-standing bilayer polymeric membrane, comprising the following steps: - providing a two-dimensional material grown on a sacrificial substrate (step 100); - spin-coating the two-dimensional material with a soft and heat-resistant polymer and letting cure, for a predetermined first period of time and at a predetermined first temperature, to form a first polymeric layer (step 101); - spin-coating the first polymeric layer with a rigid polymer and letting cure, for a predetermined second period of time and at a predetermined second temperature, to form a second polymeric layer, the first polymeric layer and the second polymeric layer forming a free-standing bilayer polymeric membrane (step 102); - attaching, along the edge of the second polymeric layer, an elastomeric support frame (step 103); - delaminating the two-dimensional material from the sacrificial substrate (step 104); - rinsing the two-dimensional material (step 105); - fixing the assembly consisting of two-dimensional material, free-standing bilayer polymeric membrane and elastomeric support frame to a transfer tool and aligning it to a target substrate (step 106); - heating the target substrate and attaching thereto the assembly consisting of two-dimensional material, free-standing bilayer polymeric membrane and elastomeric support frame (step 107); - after having fixed the two-dimensional material to the target substrate, removing the free-standing bilayer polymeric membrane and the elastomeric support frame (step 108). - providing a two-dimensional material grown on a sacrificial substrate (step 100); - spin-coating the two-dimensional material with a soft and heat-resistant polymer and letting cure, for a predetermined first period of time and at a predetermined first temperature, to form a first polymeric layer (step 101); - spin-coating the first polymeric layer with a rigid polymer and letting cure, for a predetermined second period of time and at a predetermined second temperature, to form a second polymeric layer, the first polymeric layer and the second polymeric layer forming a free-standing bilayer polymeric membrane (step 102); - attaching, along the edge of the second polymeric layer, an elastomeric support frame (step 103); - delaminating the two-dimensional material from the sacrificial substrate (step 104); - rinsing the two-dimensional material (step 105); - fixing the assembly consisting of two-dimensional material, free-standing bilayer polymeric membrane and elastomeric support frame to a transfer tool and aligning it to a target substrate (step 106); - heating the target substrate and attaching thereto the assembly consisting of two-dimensional material, free-standing bilayer polymeric membrane and elastomeric support frame (step 107); - after having fixed the two-dimensional material to the target substrate, removing the free-standing bilayer polymeric membrane and the elastomeric support frame (step 108).
Setting tool for a setting tool system for setting capsule anchors, comprising a shank and a head that is arranged at one end of the shank and has a recess for receiving a drive head of a capsule anchor, characterized in that the shape of the recess is formed substantially by two superimposed hexagons (26, 28) arranged offset to one another, the hexagons (26, 28) having circumradii of different sizes.
A camera system configured to produce super resolution images (138, 139) of a target scene, the camera system comprising: a first detector (104, 176, 196) configured to capture a first image of the target scene, the first detector (104, 176, 196) including a first pitch; and a second detector (106, 176, 196) configured to capture a second image of the target scene, the second detector (106, 176, 196) including a second pitch different from the first pitch; and a processing unit configured to combine the first image and the second image into a single image including sub-pixels (140, 148, 154, 158, 162) by comparing the photon counts captured from the first detector (104, 176, 196) to the photon counts captured from the second detector (106, 176, 196) in order to determine photon counts incident on sub-pixels (154, 162, 140) of the single image, and to determine an intensity for each sub-pixel (140, 148, 154, 158, 162) by dividing the photon count of each respective sub-pixel by an area of that sub-pixel, wherein the intensities from each of the sub-pixels (140, 148, 154, 158, 162) are then combined to produce the single super resolution image (138, 139). a first detector (104, 176, 196) configured to capture a first image of the target scene, the first detector (104, 176, 196) including a first pitch; and a second detector (106, 176, 196) configured to capture a second image of the target scene, the second detector (106, 176, 196) including a second pitch different from the first pitch; and a processing unit configured to combine the first image and the second image into a single image including sub-pixels (140, 148, 154, 158, 162) by comparing the photon counts captured from the first detector (104, 176, 196) to the photon counts captured from the second detector (106, 176, 196) in order to determine photon counts incident on sub-pixels (154, 162, 140) of the single image, and to determine an intensity for each sub-pixel (140, 148, 154, 158, 162) by dividing the photon count of each respective sub-pixel by an area of that sub-pixel, wherein the intensities from each of the sub-pixels (140, 148, 154, 158, 162) are then combined to produce the single super resolution image (138, 139).
A system for measuring rain and snow comprising: • a module for collecting water or snow, • a module for measuring the level and volume of fluid, • a data processing and handling module, • a heating module for collecting snow, • a housing and a photovoltaic energy module, wherein the module for collecting water or snow comprises a funnel, an impurities filter and a gasket, and the module for measuring the level and volume of fluid comprises a laser sensor, a laser sensor base, three supports for the laser sensor, three fixing rings for supports, a U-shaped bottle, a coupling for flow sensor, a flow sensor, a flow sensor outlet elbow, a drain tube and a protective filter for the drain, and the data processing module comprises an embedded system, a digital interface, an RS-232 communications interface, and an Ethernet 10/100/1000 communications interface, wherein the heating module for collecting snow is responsible for maintaining the temperature in the funnel at an appropriate level through an adaptive control implemented with the data processing module, so that: during a hot season, precipitation measurement is performed at ambient temperature, and during a cold season, the heating module heats water or snow in the funnel to a temperature greater than or equal to 4°C in order to bring the water to the triple point. • a module for collecting water or snow, • a module for measuring the level and volume of fluid, • a data processing and handling module, • a heating module for collecting snow, • a housing and a photovoltaic energy module, wherein the module for collecting water or snow comprises a funnel, an impurities filter and a gasket, and the module for measuring the level and volume of fluid comprises a laser sensor, a laser sensor base, three supports for the laser sensor, three fixing rings for supports, a U-shaped bottle, a coupling for flow sensor, a flow sensor, a flow sensor outlet elbow, a drain tube and a protective filter for the drain, and the data processing module comprises an embedded system, a digital interface, an RS-232 communications interface, and an Ethernet 10/100/1000 communications interface, wherein the heating module for collecting snow is responsible for maintaining the temperature in the funnel at an appropriate level through an adaptive control implemented with the data processing module, so that: during a hot season, precipitation measurement is performed at ambient temperature, and during a cold season, the heating module heats water or snow in the funnel to a temperature greater than or equal to 4°C in order to bring the water to the triple point. during a hot season, precipitation measurement is performed at ambient temperature, and during a cold season, the heating module heats water or snow in the funnel to a temperature greater than or equal to 4°C in order to bring the water to the triple point.
A welding system comprising: a welding power supply device; a peripheral device; a welding torch; a power cable for supplying welding power from the welding power supply device to the welding torch; and a power transfer line for supplying power for driving the peripheral device from the welding power supply device to the peripheral device; wherein the welding power supply device and the peripheral device are configured to perform communication via the power transfer line, characterised in that the welding system further comprises a gas pipe for supplying a shielding gas to the welding torch, wherein at least a part of the power transfer line is arranged inside of the gas pipe. a welding power supply device; a peripheral device; a welding torch; a power cable for supplying welding power from the welding power supply device to the welding torch; and a power transfer line for supplying power for driving the peripheral device from the welding power supply device to the peripheral device; wherein the welding power supply device and the peripheral device are configured to perform communication via the power transfer line,
Trampoline with a frame construction and a jumping bed mounted thereon, wherein at least one support which connects the elements of the frame construction is provided, wherein the support is rotatably mounted at a first segment of the frame construction and is fixed at a second segment of the frame construction by means of an angle joint, characterised in that the angle joint comprises a ball socket arranged at the support and a ball arranged at the segment of the frame construction, and that for formation of the angle joint the ball socket is detentable on the ball.
Method for packing in a straw a predetermined dose of a liquid substance initially contained in a receptacle open at the top, including a filling step for causing said predetermined dose to penetrate into said straw, which is lying down, with a filling accessory (1; 1'; 101; 201) nested in said straw, which method is characterized in that it includes, before the filling step: - the step of causing an upright pipette tip to cooperate with said receptacle to take up therefrom at least one dose of liquid substance; - the step of procuring one of said accessories having a body (3; 103; 203) adapted to cooperate with said upright pipette tip and having a spout (2; 102; 202) with a capillary passage (4; 104; 204) adapted to be nested in said straw, which spout projects from said body and is oriented transversely to said body (3; 103; 203) so that when said body (3; 103; 203) is upright said spout (2; 102; 202) is lying down; and - the step of causing said upright pipette tip containing at least said dose, to cooperate with said body (3; 103; 203) so that the content of said pipette tip belongs to this accessory (1; 1'; 101; 201). - the step of causing an upright pipette tip to cooperate with said receptacle to take up therefrom at least one dose of liquid substance; - the step of procuring one of said accessories having a body (3; 103; 203) adapted to cooperate with said upright pipette tip and having a spout (2; 102; 202) with a capillary passage (4; 104; 204) adapted to be nested in said straw, which spout projects from said body and is oriented transversely to said body (3; 103; 203) so that when said body (3; 103; 203) is upright said spout (2; 102; 202) is lying down; and - the step of causing said upright pipette tip containing at least said dose, to cooperate with said body (3; 103; 203) so that the content of said pipette tip belongs to this accessory (1; 1'; 101; 201).
Waveguide coupling for a fill level radar, comprising: a waveguide; a high-frequency chip, which is arranged at least partially in the waveguide, for generation of a high-frequency transmission signal; wherein the high-frequency chip comprises a coupling element for coupling the transmission signal into the waveguide, a substrate, on which the high-frequency chip is mounted, wherein the substrate is mounted on the waveguide, characterized in that the waveguide comprises an resonator chamber which is integrated in a cavity in the substrate and that the waveguide is inserted in the cavity. a waveguide; a high-frequency chip, which is arranged at least partially in the waveguide, for generation of a high-frequency transmission signal; wherein the high-frequency chip comprises a coupling element for coupling the transmission signal into the waveguide, a substrate, on which the high-frequency chip is mounted, wherein the substrate is mounted on the waveguide,
A continuous process for preparing n -butanol, the process comprising: forming a reaction mixture comprising ethanol, hydrogen, water and acetaldehyde, the reaction mixture comprising a mole ratio of hydrogen to ethanol of from 0.1:1 to 5:1, a mole ratio of acetaldehyde to ethanol of from 0.001:1 to 0.1:1, and a mole ratio of water to ethanol of less than 0.05:1; and contacting the reaction mixture with a Guerbet catalyst in a gas phase reactor having a fixed catalyst bed at a reaction temperature of from 50°C to 450°C and a reaction pressure of from 1 MPa absolute (10 bara) to 20 MPa absolute (200 bara) to form a reactor product stream comprising n -butanol, wherein the Guerbet catalyst is a metal oxide catalyst, and wherein n-butanol yield based on ethanol is from 10% to 35% and wherein the selectivity to n-butanol is from 65% to 95%. forming a reaction mixture comprising ethanol, hydrogen, water and acetaldehyde, the reaction mixture comprising a mole ratio of hydrogen to ethanol of from 0.1:1 to 5:1, a mole ratio of acetaldehyde to ethanol of from 0.001:1 to 0.1:1, and a mole ratio of water to ethanol of less than 0.05:1; and contacting the reaction mixture with a Guerbet catalyst in a gas phase reactor having a fixed catalyst bed at a reaction temperature of from 50°C to 450°C and a reaction pressure of from 1 MPa absolute (10 bara) to 20 MPa absolute (200 bara) to form a reactor product stream comprising n -butanol, wherein the Guerbet catalyst is a metal oxide catalyst, and wherein n-butanol yield based on ethanol is from 10% to 35% and wherein the selectivity to n-butanol is from 65% to 95%.
A method to improve the utility of solid-state storage media, the method comprising: referencing one or more storage media characteristics for a set of storage cells of solid-state storage media, the one or more storage media characteristics comprising one or more of a program/erase cycle count, and a read count for the set of storage cells; determining a read voltage threshold for the set of storage cells based on the referenced one or more storage media characteristics; and configuring the set of storage cells to use the determined read voltage threshold; the method further comprising: updating the one or more storage media characteristics for the set of storage cells in response to an update event; and updating the read voltage threshold for the set of storage cells in response to a change in the one or more storage media characteristics; wherein the update event comprises one or more of a startup operation for a device comprising the set of storage cells, a shutdown operation for a device comprising the set of storage cells, and a garbage collection operation for the set of storage cells. referencing one or more storage media characteristics for a set of storage cells of solid-state storage media, the one or more storage media characteristics comprising one or more of a program/erase cycle count, and a read count for the set of storage cells; determining a read voltage threshold for the set of storage cells based on the referenced one or more storage media characteristics; and configuring the set of storage cells to use the determined read voltage threshold; the method further comprising: updating the one or more storage media characteristics for the set of storage cells in response to an update event; and updating the read voltage threshold for the set of storage cells in response to a change in the one or more storage media characteristics; wherein the update event comprises one or more of a startup operation for a device comprising the set of storage cells, a shutdown operation for a device comprising the set of storage cells, and a garbage collection operation for the set of storage cells. updating the one or more storage media characteristics for the set of storage cells in response to an update event; and updating the read voltage threshold for the set of storage cells in response to a change in the one or more storage media characteristics; wherein the update event comprises one or more of a startup operation for a device comprising the set of storage cells, a shutdown operation for a device comprising the set of storage cells, and a garbage collection operation for the set of storage cells.
A method of automatically preparing a Musical Instrument Digital Interface, MIDI, file based on a target MIDI file and a source MIDI file, the method comprising: segmenting the source MIDI file into source segments (s); segmenting the target MIDI file into target segments (t) having the same length or lengths as the source segments (s); reordering at least some of the source segments; aligning each target segment of the target MIDI file with a corresponding source segment of the reordered source segments; concatenating the reordered source segments to obtain a new MIDI file having the same length as the target MIDI file; and outputting the new MIDI file; characterised in that the aligning of each segment (t) of the target MIDI file with a corresponding source segment (s) of the new MIDI file results in a combined MIDI file comprising the target MIDI file aligned with the new MIDI file; and wherein the outputting of the new MIDI file comprises outputting the combined MIDI file comprising the new MIDI file. segmenting the source MIDI file into source segments (s); segmenting the target MIDI file into target segments (t) having the same length or lengths as the source segments (s); reordering at least some of the source segments; aligning each target segment of the target MIDI file with a corresponding source segment of the reordered source segments; concatenating the reordered source segments to obtain a new MIDI file having the same length as the target MIDI file; and outputting the new MIDI file; characterised in that the aligning of each segment (t) of the target MIDI file with a corresponding source segment (s) of the new MIDI file results in a combined MIDI file comprising the target MIDI file aligned with the new MIDI file; and wherein the outputting of the new MIDI file comprises outputting the combined MIDI file comprising the new MIDI file.