mhurhangee/ep-ind-claims huggingface dataset:
A ruggedized interferometer, comprising a light source that generates a beam of light; a fixed mirror; a moving mirror that travels along a linear path; a beam splitter that directs a first portion of the beam of light to the fixed mirror and a second portion of the beam of light to the moving mirror, wherein the beam splitter recombines the first portion reflected from the fixed mirror and the second portion reflected from the moving mirror; and a servo control that uses a drive coil to apply a substantial degree of force to the moving mirror at initiation of a turnaround period, wherein the substantial degree of force is sufficient to redirect the moving mirror traveling at a high velocity to an opposite direction of travel on the linear path; wherein: the substantial degree of force comprises a force in the range of 50-300 grams; and the high velocity comprises a velocity that is greater or equal to 3 cm/s; and wherein the initiation of the turnaround period uses an open loop control scheme to apply the substantial degree of force; and the servo control applies a force to the moving mirror in a steady state mode using a closed loop control scheme. a light source that generates a beam of light; a fixed mirror; a moving mirror that travels along a linear path; a beam splitter that directs a first portion of the beam of light to the fixed mirror and a second portion of the beam of light to the moving mirror, wherein the beam splitter recombines the first portion reflected from the fixed mirror and the second portion reflected from the moving mirror; and a servo control that uses a drive coil to apply a substantial degree of force to the moving mirror at initiation of a turnaround period, wherein the substantial degree of force is sufficient to redirect the moving mirror traveling at a high velocity to an opposite direction of travel on the linear path; wherein: the substantial degree of force comprises a force in the range of 50-300 grams; and the high velocity comprises a velocity that is greater or equal to 3 cm/s; and wherein the initiation of the turnaround period uses an open loop control scheme to apply the substantial degree of force; and the servo control applies a force to the moving mirror in a steady state mode using a closed loop control scheme.
Fuel cell emulator arranged to emulate a fuel cell when the latter is operatively connected to a fuel cell management system, the fuel cell emulator, as the emulated fuel cell, including - a first input port (H2 in) and a second input port (Air in) to receive respectively hydrogen flow and air flow from the fuel cell management system, and - a first output port (H2+N2+H2O) arranged to be connected to a recirculation circuit of the fuel cell management system and a second output port (Air + H2O) arranged to remove the exhaust air from the fuel cell; - a first cooling connection (CLIN, CLOUT) to be connected to a first cooling circuit of the fuel cell management system; the fuel cell emulator further including: - a burner or catalytic reactor capable to carry out an oxidizing process of hydrogen and oxygen provided by the fuel cell management system to produce exclusively thermal energy, - a second temperature control circuit, independent and separated by said first cooling circuit of the fuel cell management system, arranged to dissipate thermal energy, - control means (FCECU) arranged to control said second temperature control circuit such that to dissipate an amount of thermal energy equivalent to the electric energy produced by the emulated fuel cell in the same operating conditions. - a first input port (H2 in) and a second input port (Air in) to receive respectively hydrogen flow and air flow from the fuel cell management system, and - a first output port (H2+N2+H2O) arranged to be connected to a recirculation circuit of the fuel cell management system and a second output port (Air + H2O) arranged to remove the exhaust air from the fuel cell; - a first cooling connection (CLIN, CLOUT) to be connected to a first cooling circuit of the fuel cell management system; - a burner or catalytic reactor capable to carry out an oxidizing process of hydrogen and oxygen provided by the fuel cell management system to produce exclusively thermal energy, - a second temperature control circuit, independent and separated by said first cooling circuit of the fuel cell management system, arranged to dissipate thermal energy, - control means (FCECU) arranged to control said second temperature control circuit such that to dissipate an amount of thermal energy equivalent to the electric energy produced by the emulated fuel cell in the same operating conditions.
A dewatering apparatus for the disposal of personal care items, the apparatus comprising: a size reduction portion adapted to reduce the size of one or more of the items to be dewatered; and a separation portion in fluid communication with said size reduction portion, the separation portion adapted to substantially separate the liquid and solid components of the one or more items; wherein the separation portion includes a solids outlet for supplying solids to a container; characterized in that: the dewatering apparatus includes a seal which seals the solids outlet during processing of pulp to remove liquid, and an actuator for removing the seal to pass the solids through the solids outlet. a size reduction portion adapted to reduce the size of one or more of the items to be dewatered; and a separation portion in fluid communication with said size reduction portion, the separation portion adapted to substantially separate the liquid and solid components of the one or more items; wherein the separation portion includes a solids outlet for supplying solids to a container;
An apparatus for making a controlled bioactive dose including: a print device to eject a drop of a mixture onto an ingestible substrate, wherein the drop of mixture includes a bioactive agent within an ingestible carrier fluid and is between 50 ng and 1000 ng in size; a charge generating device adjacent to the print device to generate charge on the bioactive agent to draw the bioactive agent to the ingestible substrate; a cold fluid removal device adjacent to the charge generating device to remove a portion of the ingestible carrier fluid from the bioactive agent; an application device adjacent to the cold fluid removal device to apply an ingestible layer on top of the ingestible substrate encapsulating the bioactive agent or to fold the ingestible substrate on top of the bioactive agent encapsulating the bioactive agent; and a transfer device adjacent to the print device, the charge generating device, the cold fluid removal device, and the application device to move the ingestible substrate from one device to the next. a print device to eject a drop of a mixture onto an ingestible substrate, wherein the drop of mixture includes a bioactive agent within an ingestible carrier fluid and is between 50 ng and 1000 ng in size; a charge generating device adjacent to the print device to generate charge on the bioactive agent to draw the bioactive agent to the ingestible substrate; a cold fluid removal device adjacent to the charge generating device to remove a portion of the ingestible carrier fluid from the bioactive agent; an application device adjacent to the cold fluid removal device to apply an ingestible layer on top of the ingestible substrate encapsulating the bioactive agent or to fold the ingestible substrate on top of the bioactive agent encapsulating the bioactive agent; and a transfer device adjacent to the print device, the charge generating device, the cold fluid removal device, and the application device to move the ingestible substrate from one device to the next.
An air conditioner configured to condition air by connecting an indoor unit including a first heat exchanger, in which a refrigerant exchanging heat with room air flows, to an outdoor unit including a second heat exchanger in which a refrigerant exchanging heat with outdoor air flows, the first heat exchanger including a first heat transfer tube (11a1; 61a1; 81a1; 121a) made of aluminum or aluminum alloy, the second heat exchanger including a second heat transfer tube made of aluminum or aluminum alloy, a first sacrificial layer (45a; 75a; 95a; 132) being formed on an outer circumferential surface of the first heat transfer tube (11a1; 61a1; 81a1; 121a), a second sacrificial layer being formed on an outer circumferential surface of the second heat transfer tube, and characterized by the maximum thickness (to) of the second sacrificial layer being larger than the maximum thickness (ti1; ti3; ti5; ti8) of the first sacrificial layer (45a; 75a; 95a; 132). the first heat exchanger including a first heat transfer tube (11a1; 61a1; 81a1; 121a) made of aluminum or aluminum alloy, the second heat exchanger including a second heat transfer tube made of aluminum or aluminum alloy, a first sacrificial layer (45a; 75a; 95a; 132) being formed on an outer circumferential surface of the first heat transfer tube (11a1; 61a1; 81a1; 121a), a second sacrificial layer being formed on an outer circumferential surface of the second heat transfer tube, and characterized by the maximum thickness (to) of the second sacrificial layer being larger than the maximum thickness (ti1; ti3; ti5; ti8) of the first sacrificial layer (45a; 75a; 95a; 132).
In-line heat treatment of bars exiting a rolling mill wherein, immediately after at least one stage of rolling, there is provided a solution heat-treatment in a solution heat-treatment line (10, 10', 10"), with an initial temperature of the bars comprised between 900 and 1200°C, characterised in that there is provided a quenching speed comprised between 10 and 150°C/sec, and in that the final temperature of the solution heat-treatment of the bars is between 350 and 650°C, such that a first curve, which represents the temperature pattern at the core of the treated bar over time, does not intersect and remains below a second curve showing precipitation of carbides, specific to the material of the treated bar.
A hot-runner injection molding tool a. with a hot-runner nozzle comprising a flow channel, b. with a mold plate relatively cooler to the hot-runner nozzle, c. with a needle valve nozzle, actuated by means of a power-operated mechanism/actuating device, having a guiding and sealing sleeve (17, 26) and having a shut-off needle, wherein the needle valve nozzle is arranged in the hot-runner injection molding tool, d. wherein an actuating direction of the shut-off needle and a direction of the flow channel of the hot-runner nozzle differ from each other, e. wherein apart from the actuating device, the shut-off needle is held in place in the closed position exclusively by the cooler mold plate at at least two spaced-apart locations, f. wherein one of the at least two locations is formed by the guiding and sealing sleeve (17, 26), which is seated in the cooler mold plate, and g. wherein the guiding and sealing sleeve (17, 26) extends into the hot-runner nozzle without contacting it, so that a gap remains between the guiding and sealing sleeve (17, 26) and the hot-runner nozzle. a. with a hot-runner nozzle comprising a flow channel, b. with a mold plate relatively cooler to the hot-runner nozzle, c. with a needle valve nozzle, actuated by means of a power-operated mechanism/actuating device, having a guiding and sealing sleeve (17, 26) and having a shut-off needle, wherein the needle valve nozzle is arranged in the hot-runner injection molding tool, d. wherein an actuating direction of the shut-off needle and a direction of the flow channel of the hot-runner nozzle differ from each other, e. wherein apart from the actuating device, the shut-off needle is held in place in the closed position exclusively by the cooler mold plate at at least two spaced-apart locations, f. wherein one of the at least two locations is formed by the guiding and sealing sleeve (17, 26), which is seated in the cooler mold plate, and g. wherein the guiding and sealing sleeve (17, 26) extends into the hot-runner nozzle without contacting it, so that a gap remains between the guiding and sealing sleeve (17, 26) and the hot-runner nozzle.
Rail box for a sliding door of a motor vehicle, the housing comprising a rear part and a front part, the rear part being connected by one end thereof to the front part, the front part having a curvature, the housing being characterized in that the front part a metal plug whose section has an "L" profile such as to have a lower wall and a side wall, the front portion further comprising an upper wall formed by an inflating insert.
A sensor for detecting and localizing laser radiation sources, having - a radiation-sensitive detector situated in the image field of an imaging optical system, - an electronic image processing device that is connected to the detector, and - an optical diffraction element situated in the beam path, characterized in that the diffraction properties of the optical diffraction element are designed in such a way that incident laser light of different wavelength bands generates in each case mutually rotated diffraction patterns, wherein the diffraction patterns associated with the individual wavelength bands differ by a rotation about an axis of symmetry of a diffraction pattern, and the electronic signal evaluation device is configured in such a way that it detects and evaluates the rotation of the diffraction pattern. - a radiation-sensitive detector situated in the image field of an imaging optical system, - an electronic image processing device that is connected to the detector, and - an optical diffraction element situated in the beam path, characterized in that the diffraction properties of the optical diffraction element are designed in such a way that incident laser light of different wavelength bands generates in each case mutually rotated diffraction patterns, wherein the diffraction patterns associated with the individual wavelength bands differ by a rotation about an axis of symmetry of a diffraction pattern, and the electronic signal evaluation device is configured in such a way that it detects and evaluates the rotation of the diffraction pattern.
Paintbrush comprising a paintbrush handle, a bristle carrier, a clamp and a paintbrush longitudinal axes, wherein the paintbrush handle comprises a paintbrush handle latching element at a first end the bristle carrier comprises a bristle carrier latching element at a first front face so that it is possible to latch to bristle carrier with the paintbrush handle, wherein the paintbrush handle latching element as well as the bristle carrier latching element comprise a latching protrusion or a latching recess and for establishing a latching connection unit the latching protrusion and the latching recess can be brought into engagement with each other, a first force being required for the provision of the engagement and so for establishing the latching connection unit and a second force being required for the opposite separation and so for releasing the latching connection unit, the second force being higher than the first force, the clamp at least partially surrounds or encloses the bristle carrier in relation with its extension along the paintbrush longitudinal axes and the clamp and the bristle carrier are embodied as one single piece, the paintbrush handle and the bristle carrier cannot be separated from each other without being damaged, characterised in that the bristle carrier comprises a plurality of bristles and a plurality of bristle bundles formed by the bristles, the bristle carrier comprises recesses wherein each a bristle bundle is held, the bristles and the bristle bundles are fixed to the bristle carrier without an adhesive and the bristle carrier comprises a convex arched bristle carrier surface. the paintbrush handle comprises a paintbrush handle latching element at a first end the bristle carrier comprises a bristle carrier latching element at a first front face so that it is possible to latch to bristle carrier with the paintbrush handle, wherein the paintbrush handle latching element as well as the bristle carrier latching element comprise a latching protrusion or a latching recess and for establishing a latching connection unit the latching protrusion and the latching recess can be brought into engagement with each other, a first force being required for the provision of the engagement and so for establishing the latching connection unit and a second force being required for the opposite separation and so for releasing the latching connection unit, the second force being higher than the first force, the clamp at least partially surrounds or encloses the bristle carrier in relation with its extension along the paintbrush longitudinal axes and the clamp and the bristle carrier are embodied as one single piece, the paintbrush handle and the bristle carrier cannot be separated from each other without being damaged, characterised in that the bristle carrier comprises a plurality of bristles and a plurality of bristle bundles formed by the bristles, the bristle carrier comprises recesses wherein each a bristle bundle is held, the bristles and the bristle bundles are fixed to the bristle carrier without an adhesive and the bristle carrier comprises a convex arched bristle carrier surface.
Trim assembly for a motor vehicle, comprising - a trim part for covering a body part of the motor vehicle, - an adjusting element which is part of a drive device for opening and closing a luggage compartment cover of the motor vehicle, and - a guide element which predetermines a guide path for the luggage compartment cover and which is provided on the trim part, wherein the adjusting element is held on the guide element, characterized in that the guide element has at least one opening which, with the trim assembly mounted as intended on the body part, is open to the body part and via which the adjusting element can bear against and be supported on the body part in that the adjusting element is in direct contact with the body part at least in the region of the opening. - a trim part for covering a body part of the motor vehicle, - an adjusting element which is part of a drive device for opening and closing a luggage compartment cover of the motor vehicle, and - a guide element which predetermines a guide path for the luggage compartment cover and which is provided on the trim part,
Thrust bearing for a turbocharger having an essentially disk-shaped bearing body with a central through opening for a shaft, with at least one bearing surface surrounding the through opening for a collar arranged on the shaft and with at least one oil supply duct which leads from a radially outer region of the bearing body to the through opening and which is formed as a groove, characterized in that the bearing surface is enclosed by an oil discharge groove arranged concentrically with respect to the through opening, and in that the cross section area of the oil supply duct is larger than the cross section area of the oil discharge groove.
Seat, in particular vehicle seat, comprising - a seat cushion, - a lower seat cover fastened to the seat cushion, - an upper seat cover which is able to be releasably fastened to the lower seat cover, - wherein one of the seat covers (6, 20) is provided with at least one edge strip - wherein the edge strip comprises an edge strip core (10.1) which is surrounded by a fastening material (10.4), and - wherein the other seat cover (6, 20) is provided with a retaining material into which the fastening material (10.4) of the edge strip engages in a retaining manner in the connected state. - a seat cushion, - a lower seat cover fastened to the seat cushion, - an upper seat cover which is able to be releasably fastened to the lower seat cover, - wherein one of the seat covers (6, 20) is provided with at least one edge strip - wherein the edge strip comprises an edge strip core (10.1) which is surrounded by a fastening material (10.4), and - wherein the other seat cover (6, 20) is provided with a retaining material into which the fastening material (10.4) of the edge strip engages in a retaining manner in the connected state.
A system-on-a-chip for a self-driving vehicle, comprising: a Central Processing Unit complex, a Graphics Processing Unit, on-chip memory (500, 600), and an embedded hardware acceleration cluster, characterized in that the embedded hardware acceleration cluster comprises a programmable vision accelerator, and a deep learning accelerator configured to execute neural networks (162, 1001, 7040, 7050, 7060) comprising one or more Tensor Processing Units configured to execute the neural networks. a Central Processing Unit complex, a Graphics Processing Unit, on-chip memory (500, 600), and an embedded hardware acceleration cluster, characterized in that the embedded hardware acceleration cluster comprises a programmable vision accelerator, and a deep learning accelerator configured to execute neural networks (162, 1001, 7040, 7050, 7060) comprising one or more Tensor Processing Units configured to execute the neural networks. a programmable vision accelerator, and a deep learning accelerator configured to execute neural networks (162, 1001, 7040, 7050, 7060) comprising one or more Tensor Processing Units configured to execute the neural networks.
A method for detecting a presence of a partial or total occlusion in a blood line in a circuit for extracorporeal blood treatment, comprising steps of: acquiring a plurality of first pressure values from a first sensor (13, 19) mounted at a first point of a circuit for extracorporeal blood treatment, comprising a blood line in which the blood is subjected to a pulsating thrust; acquiring a plurality of second pressure values from a second sensor mounted at a second point, distinct from the first point of the blood line of the circuit for extracorporeal blood treatment, the first and second pressure values being sampled and detected at a plurality of corresponding successive temporal instants that are distanced from one another by a predetermined time interval, and relating at least a first value, related to the first pressure value, and at least a second value, related to the second pressure value, with at least a threshold value, in order to obtain a datum representing a state of the blood line, wherein the first value and the second value are respectively related to corresponding differences between two first pressure values measured by the first sensor (13, 19) in two successive and distinct temporal instants and between two second pressure values measured by the second sensor in the two successive and distinct temporal instants. acquiring a plurality of first pressure values from a first sensor (13, 19) mounted at a first point of a circuit for extracorporeal blood treatment, comprising a blood line in which the blood is subjected to a pulsating thrust; acquiring a plurality of second pressure values from a second sensor mounted at a second point, distinct from the first point of the blood line of the circuit for extracorporeal blood treatment, the first and second pressure values being sampled and detected at a plurality of corresponding successive temporal instants that are distanced from one another by a predetermined time interval, and relating at least a first value, related to the first pressure value, and at least a second value, related to the second pressure value, with at least a threshold value, in order to obtain a datum representing a state of the blood line, wherein the first value and the second value are respectively related to corresponding differences between two first pressure values measured by the first sensor (13, 19) in two successive and distinct temporal instants and between two second pressure values measured by the second sensor in the two successive and distinct temporal instants.