mhurhangee/ep-ind-claims huggingface dataset:
A Power Sourcing Equipment, PSE, characterized in that the PSE comprises: a first port group, comprising a plurality of PSE ports, wherein the PSE ports in the first port group are connected in parallel and connected with a first line pair and a second line pair in an Ethernet cable such that each PSE port in the first port group is connected to both the first line pair and the second line pair; a second port group, comprising a plurality of PSE ports, wherein the PSE ports in the second port group are connected in parallel and connected with a third line pair and a fourth line pair in the Ethernet cable such that each PSE port in the second port group is connected to both the third line pair and the fourth line pair; a detecting and classifying module, configured to perform feature detection for a Power Device, PD, connected with the Ethernet cable, wherein the PD is external to the PSE; and a power sourcing module, configured to output a working voltage from the first port group to supply power for the PD via the first line pair and the second line pair and output the working voltage from the second port group to supply power for the PD via the third line pair and the fourth line pair when the PD passes the feature detection. a first port group, comprising a plurality of PSE ports, wherein the PSE ports in the first port group are connected in parallel and connected with a first line pair and a second line pair in an Ethernet cable such that each PSE port in the first port group is connected to both the first line pair and the second line pair; a second port group, comprising a plurality of PSE ports, wherein the PSE ports in the second port group are connected in parallel and connected with a third line pair and a fourth line pair in the Ethernet cable such that each PSE port in the second port group is connected to both the third line pair and the fourth line pair; a detecting and classifying module, configured to perform feature detection for a Power Device, PD, connected with the Ethernet cable, wherein the PD is external to the PSE; and a power sourcing module, configured to output a working voltage from the first port group to supply power for the PD via the first line pair and the second line pair and output the working voltage from the second port group to supply power for the PD via the third line pair and the fourth line pair when the PD passes the feature detection.
An intervertebral body spacer device for motion preservation, comprising first and second plates (100, 200, 400, 500, 610, 630, 740, 750, 810, 830, 910, 920) with inner and outer surfaces, said plates (100, 200, 400, 500, 610, 630, 740, 750, 810, 830, 910, 920) being disposed in a spaced apart relationship with the inner surface of the first plate facing the inner surface of the second plate, both inner surfaces being separated by a contacting element (300, 620, 870, 930), wherein the inner surfaces of at least one or each plate are shaped such as to form two planar or non-planer sloping surfaces that meet at a linear ridgeline (112, 212, 993), wherein the contact between one or both of the plates and the contacting element is a linear line contact, wherein the ridgeline portion of said plates (100, 200, 400, 500, 610, 630, 740, 750, 810, 830, 910, 920) having a ridgeline is curved and wherein a rolling motion of the plate (100, 200, 400, 500, 610, 630, 740, 750, 810, 830, 910, 920) with respect to the contacting element (300, 620, 870, 930) is enabled, characterised in that said rolling motion is enabled so that during the rolling motion of the plate (100, 200, 400, 500, 610, 630, 740, 750, 810, 830, 910, 920) with respect to the contacting element (300, 620, 870, 930) the ridgeline (112, 212, 993) becomes out of contact with the contacting element (300, 620, 870, 930), and a portion of the inner surface of the plate being arranged just beside the ridgeline (112, 212, 993) is enabled to come into contact with the contacting element (300, 620, 870, 930) and during this motion the axis around which the plate is rolled is moved with respect to the contacting element, and wherein the outer surfaces of the contacting element facing the plates are planar.
A passing device, to be disposed in a container, said passing device being configured to lead a passage of contents contained inside the container, comprising: a passing operation part configured to guide movement of the content; a passing movement part rotatably disposed in the passing operation part and configured to move so that the content is passed; and a sensing part disposed in the passing operation part and configured to sense content discharged due to rotation of one end of the passing movement part, wherein the sensing part detects information on the sensed content, characterized in that the sensing part includes at least one light emitting part configured to emit light toward content discharged due to rotation of the passing movement part, at least one light receiving part configured to receive the light emitted from the light emitting part [EDIT 1], and a sensing control part configured to sense the content discharged through the passing operation part by using the light emitted from the light emitting part and then received by the light receiving part, wherein the light emitting part and the light receiving part are respectively installed at both sides of the passing movement part, and wherein the sensing control part determines that the content has passed through the passing operation part when an amount of change in the quantity of light received by the light receiving part is equal to or larger than a predetermined amount of change. a passing operation part configured to guide movement of the content; a passing movement part rotatably disposed in the passing operation part and configured to move so that the content is passed; and a sensing part disposed in the passing operation part and configured to sense content discharged due to rotation of one end of the passing movement part, wherein the sensing part detects information on the sensed content, characterized in that the sensing part includes at least one light emitting part configured to emit light toward content discharged due to rotation of the passing movement part, at least one light receiving part configured to receive the light emitted from the light emitting part [EDIT 1], and a sensing control part configured to sense the content discharged through the passing operation part by using the light emitted from the light emitting part and then received by the light receiving part, wherein the light emitting part and the light receiving part are respectively installed at both sides of the passing movement part, and wherein the sensing control part determines that the content has passed through the passing operation part when an amount of change in the quantity of light received by the light receiving part is equal to or larger than a predetermined amount of change.
An image processing device comprising: a motion image decoding processing unit to which a stream is input; and a cache memory which temporarily stores data stored in an external memory, and wherein the motion image decoding processing unit extracts a feature amount from a target image in the stream to be decoded, and changes a read size of a cache fill from the external memory to the cache memory, based on the feature amount, wherein the data comprises a part of a reference image to be referred at the inter-prediction, characterized by the motion image decoding processing unit extracting an intra macro block ratio of macro blocks of one picture in a target image in the stream to be decoded, as the feature amount, decreases the read size, as the intra macro block ratio is high, and increases the read size, as the intra macro block ratio is low. a motion image decoding processing unit to which a stream is input; and a cache memory which temporarily stores data stored in an external memory, and wherein the motion image decoding processing unit extracts a feature amount from a target image in the stream to be decoded, and changes a read size of a cache fill from the external memory to the cache memory, based on the feature amount, wherein the data comprises a part of a reference image to be referred at the inter-prediction, characterized by the motion image decoding processing unit extracting an intra macro block ratio of macro blocks of one picture in a target image in the stream to be decoded, as the feature amount, decreases the read size, as the intra macro block ratio is high, and increases the read size, as the intra macro block ratio is low.
A cell culture method for stem cells or primary cells, comprising: placing a porous membrane above the bottom of a cell culture container in a non-contact manner; applying a hydrogel solution on one surface of the porous membrane to coat the porous membrane with a hydrogel through a sol-gel phase transition, wherein the hydrogel is coated at a concentration of 5 to 10% when the stem cells are cultured, and the hydrogel is coated at a concentration of 15 to 30% when the primary cells are cultured; placing a medium containing stem cells or primary cells on the coated hydrogel to culture the stem cells or primary cells, wherein the medium flows in between the porous membrane and the cell culture container, so that the medium and air are provided even to the cell adhesion sites. placing a porous membrane above the bottom of a cell culture container in a non-contact manner; applying a hydrogel solution on one surface of the porous membrane to coat the porous membrane with a hydrogel through a sol-gel phase transition, wherein the hydrogel is coated at a concentration of 5 to 10% when the stem cells are cultured, and the hydrogel is coated at a concentration of 15 to 30% when the primary cells are cultured; placing a medium containing stem cells or primary cells on the coated hydrogel to culture the stem cells or primary cells, wherein the medium flows in between the porous membrane and the cell culture container, so that the medium and air are provided even to the cell adhesion sites.
A shaft for a propulsion system configured to drive a reduction mechanism a first end, configured to engage an input gear of the reduction mechanism, a first bellows and a second bellows, the first bellows and the second bellows being revolutionnally symmetrical about the axis of rotation, the first bellows extends between the first end and the second bellows, and a shaft mechanically connecting the first bellows and the second bellows, the shaft having a first diameter at the level of the first bellows and a second diameter at the level of the second bellows, the shaft being characterized in that the shank is frustoconical and in that the second diameter is strictly smaller than the first diameter. a first bellows and a second bellows, the first bellows and the second bellows being revolutionnally symmetrical about the axis of rotation, the first bellows extends between the first end and the second bellows, and a shaft mechanically connecting the first bellows and the second bellows, the shaft having a first diameter at the level of the first bellows and a second diameter at the level of the second bellows, the shaft being characterized in that the shank is frustoconical and in that the second diameter is strictly smaller than the first diameter.
A particle collecting device comprising: an ozone exhaust path (31, 33) configured to exhaust ozone generated by an ozone generation device; and an electrostatic filter in a course of the ozone exhaust path (31, 33); a heated air exhaust path (32, 33) configured to exhaust a heated air generated by a heated air generation device, wherein the ozone exhaust path (31, 33) and the heated air exhaust path (32, 33) include a merging exhaust path at which a downstream side of the ozone exhaust path (31, 33) and a downstream side of the heated air exhaust path (32, 33) merge, wherein the electrostatic filter is disposed in a course of the merging exhaust path; characterised by an ozone filter at a position other than the merging exhaust path in the course of the ozone exhaust path (31, 33). an ozone exhaust path (31, 33) configured to exhaust ozone generated by an ozone generation device; and an electrostatic filter in a course of the ozone exhaust path (31, 33); a heated air exhaust path (32, 33) configured to exhaust a heated air generated by a heated air generation device, wherein the ozone exhaust path (31, 33) and the heated air exhaust path (32, 33) include a merging exhaust path at which a downstream side of the ozone exhaust path (31, 33) and a downstream side of the heated air exhaust path (32, 33) merge, wherein the electrostatic filter is disposed in a course of the merging exhaust path; characterised by an ozone filter at a position other than the merging exhaust path in the course of the ozone exhaust path (31, 33).
A method of processing a machined automotive part, in particular for processing a cylinder head or a cylinder block of an internal combustion engine, said method comprising: cleaning said machined automotive part with heated fluid in order to remove remainders of previous machining; testing said machined automotive part for compliance with one or more predetermined requirements, in particular leak testing a cylinder head; thermal interference fitting of one or more additional components to said machined automotive part; characterized by processing said machined automotive part according to a process sequence with said cleaning prior to said thermal interference fitting and with said thermal interference fitting prior to said testing so that said thermal interference fitting makes use of residual thermal expansion of said machined automotive part due to cleaning with heated fluid. cleaning said machined automotive part with heated fluid in order to remove remainders of previous machining; testing said machined automotive part for compliance with one or more predetermined requirements, in particular leak testing a cylinder head; thermal interference fitting of one or more additional components to said machined automotive part; characterized by processing said machined automotive part according to a process sequence with said cleaning prior to said thermal interference fitting and with said thermal interference fitting prior to said testing so that said thermal interference fitting makes use of residual thermal expansion of said machined automotive part due to cleaning with heated fluid.
A method comprising: receiving a first image (22, 22A that is captured by a first perception sensor (42A, 56A), the first image (22, 22A) including at least a portion of an environment of a subject, the environment (24, 190) being based on a location of a user device associated with the subject; determining a location of an object (36, 38) relative to the environment of the subject; receiving a second image (22, 22B) that is captured by a second perception sensor (42, 56A) that is an infrastructure device, the second image (22, 22B) including the object (36, 38) and a second portion of the environment, the second portion non-overlapping the first portion of the environment; comparing the first image (22, 22A) and the second image (22, 22B) to determine a void area not captured in the first image (22, 22A) or the second image (22, 22B); in response to determining the location of the object, combining the first captured image (22, 22A, 22B), the second captured image (22, 22B), and the void area to generate a modified image that indicates the location of the object relative to the environment; and causing the modified image to be presented on at least one display (52B, 312) of a second device located near the subject, the second device being different than the user device. receiving a first image (22, 22A that is captured by a first perception sensor (42A, 56A), the first image (22, 22A) including at least a portion of an environment of a subject, the environment (24, 190) being based on a location of a user device associated with the subject; determining a location of an object (36, 38) relative to the environment of the subject; receiving a second image (22, 22B) that is captured by a second perception sensor (42, 56A) that is an infrastructure device, the second image (22, 22B) including the object (36, 38) and a second portion of the environment, the second portion non-overlapping the first portion of the environment; comparing the first image (22, 22A) and the second image (22, 22B) to determine a void area not captured in the first image (22, 22A) or the second image (22, 22B); in response to determining the location of the object, combining the first captured image (22, 22A, 22B), the second captured image (22, 22B), and the void area to generate a modified image that indicates the location of the object relative to the environment; and causing the modified image to be presented on at least one display (52B, 312) of a second device located near the subject, the second device being different than the user device.
A filling valve for filling a liquid product into containers, comprising: - a product valve with a valve seat and an associated closure part for opening/closing a product path for the product on the outlet side, wherein the closure part is arranged centrally in the product path; - a purge gas passage extending upward through the closure part and separated from the product path; - a relief gas path opening into the product path downstream of the valve seat; and - a connecting passage (10, 11) formed in addition to the product path for pressure equalization between the purge gas passage and the relief gas passage, characterized in that the connecting passage (10, 11) extends through a valve block, which valve block is designed to connect the purge gas path via a pre-pressurization valve to a purge gas channel designed as a ring channel and to connect the relief gas passage via a relief valve to a relief channel designed as a ring channel, and in that the connecting passage (10, 11) is designed as a permanently open channel or as a channel that can be temporarily closed between the purge gas passage and the relief gas passage in order to open the connecting passage at least when the product valve is open. - a product valve with a valve seat and an associated closure part for opening/closing a product path for the product on the outlet side, wherein the closure part is arranged centrally in the product path; - a purge gas passage extending upward through the closure part and separated from the product path; - a relief gas path opening into the product path downstream of the valve seat; and - a connecting passage (10, 11) formed in addition to the product path for pressure equalization between the purge gas passage and the relief gas passage,
A well bore fluid sensor, comprising: an inner plate defining an axially extending interior cavity of the sensor; a plurality of outer plates, including a first outer plate and a second outer plate, disposed radially outside of the inner plate; a first cable fixture disposed at a first axial end of the sensor and a second cable fixture disposed at a second axial end of the sensor; and an electronics module that includes a resonant circuit and a power supply, the electronics module in signal communication with the inner plate and at least one of the first cable fixture and the second cable fixture; wherein the inner plate, the first outer plate, the second outer plate, the first cable fixture, and the second cable fixture are coupled together to form a unitary structure; and wherein the inner plate is electrically insulated from the first outer plate, the second outer plate, the first cable fixture, and the second cable fixture, and the first outer plate and the second outer plate are electrically insulated from one another, and the inner plate is capacitively coupled to the first outer plate and the second outer plate. an inner plate defining an axially extending interior cavity of the sensor; a plurality of outer plates, including a first outer plate and a second outer plate, disposed radially outside of the inner plate; a first cable fixture disposed at a first axial end of the sensor and a second cable fixture disposed at a second axial end of the sensor; and an electronics module that includes a resonant circuit and a power supply, the electronics module in signal communication with the inner plate and at least one of the first cable fixture and the second cable fixture; wherein the inner plate, the first outer plate, the second outer plate, the first cable fixture, and the second cable fixture are coupled together to form a unitary structure; and wherein the inner plate is electrically insulated from the first outer plate, the second outer plate, the first cable fixture, and the second cable fixture, and the first outer plate and the second outer plate are electrically insulated from one another, and the inner plate is capacitively coupled to the first outer plate and the second outer plate.
A method of probing a layer of a flexible pipe, comprising the steps of: applying a probe cycle to a flexible pipe and simultaneously applying the probe cycle to a tubular probe layer connected in an in-line configuration with said flexible pipe. applying a probe cycle to a flexible pipe and simultaneously applying the probe cycle to a tubular probe layer connected in an in-line configuration with said flexible pipe.
Method for storing tyre pressure values of vehicle tyres, having at least the following steps: a) providing vehicle tyres, each having a tyre module, the tyre module comprising at least one tyre pressure sensor, b) regularly measuring the tyre pressure at predefined time intervals, characterized by c) transmitting the individual pressure values to a memory unit on the tyre module, d) assigning the respective pressure value to a defined pressure interval, e) storing the respective measured pressure values with a counter system on the memory unit, the counter system being used to record the frequency of pressure values in the respectively defined pressure interval, f) initiating an assessment in relation to a specific tyre property or in relation to a specific vehicle property. a) providing vehicle tyres, each having a tyre module, the tyre module comprising at least one tyre pressure sensor, b) regularly measuring the tyre pressure at predefined time intervals, characterized by c) transmitting the individual pressure values to a memory unit on the tyre module, d) assigning the respective pressure value to a defined pressure interval, e) storing the respective measured pressure values with a counter system on the memory unit, the counter system being used to record the frequency of pressure values in the respectively defined pressure interval, f) initiating an assessment in relation to a specific tyre property or in relation to a specific vehicle property.