mhurhangee/ep-ind-claims huggingface dataset:
At least one sterilization-pasteurization device for sterilizing/pasteurizing a fluid and having at least one heating chamber where the fluid flows through at least one flow line by passing through at least one fluid inlet, at least one heater for increasing the heat of the fluid in said heating chamber, at least one cooling chamber whereto the fluid flows for absorption of the heat thereof after the fluid passes through the heating chamber, at least one fluid outlet where the fluid flows by passing to said cooling chamber, wherein the subject matter sterilization-pasteurization device comprises at least one condenser for increasing the heat of the fluid in the heating chamber in said flow line, at least one evaporator for absorbing the heat of the fluid in the cooling chamber, at least one throttle valve for keeping the pressure of the cooling fluid in the desired interval between said evaporator and said condenser, at least one cooling line connecting said throttle valve, the evaporator and the condenser in between, at least one compressor for providing circulation of the cooling fluid in said cooling line and at least one pre-heating chamber, wherein the condenser is positioned in the heating chamber to provide heat to the fluid.
An apparatus for use in a vehicle to display a side rear view of the vehicle, the apparatus comprising: at least one camera (11a, 11b) mountable on the vehicle to take an image of a side rear view of the vehicle, the image comprising a first partial image and a second partial image, the first and second partial images (43, 45) divided by a reference line; at least one display (15a, 15b) configured to display the side rear view of the vehicle, a screen of the at least one display (15a, 15b) comprising a first display area for the first partial image to be displayed and a second display area for a third partial image resulting from scaling the second partial image with a scaling factor to be displayed, wherein the scaling factor is variable depending on a width from the reference line to an opposite end of a second vehicle captured in the second partial image; and a control unit configured to: detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image. at least one camera (11a, 11b) mountable on the vehicle to take an image of a side rear view of the vehicle, the image comprising a first partial image and a second partial image, the first and second partial images (43, 45) divided by a reference line; at least one display (15a, 15b) configured to display the side rear view of the vehicle, a screen of the at least one display (15a, 15b) comprising a first display area for the first partial image to be displayed and a second display area for a third partial image resulting from scaling the second partial image with a scaling factor to be displayed, wherein the scaling factor is variable depending on a width from the reference line to an opposite end of a second vehicle captured in the second partial image; and a control unit configured to: detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image. detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image.
A computer-implemented unsupervised learning method of training a video feature extractor, wherein the video feature extractor is configured to extract a feature representation from a video sequence, the method comprising: - accessing training data representing multiple training video sequences, and model data representing a set of parameters of the video feature extractor; - training the video feature extractor by: - selecting from a training video sequence of the multiple training video sequences: a current subsequence, a preceding subsequence preceding the current subsequence; and a succeeding subsequence succeeding the current subsequence; - applying the video feature extractor to the current subsequence to extract a current feature representation of the current subsequence; - deriving a training signal from a joint predictability of the preceding and succeeding subsequences given the current feature representation, wherein deriving the training signal comprises extracting a positive comparative example from the preceding subsequence followed by the succeeding subsequence; extracting a negative comparative example from the succeeding subsequence followed by the preceding subsequence; and determining a contrastive loss based on comparing the current feature representation to the positive and negative comparative examples; - updating the set of parameters of the video feature extractor based on the training signal; - outputting the trained video feature extractor. - accessing training data representing multiple training video sequences, and model data representing a set of parameters of the video feature extractor; - training the video feature extractor by: - selecting from a training video sequence of the multiple training video sequences: a current subsequence, a preceding subsequence preceding the current subsequence; and a succeeding subsequence succeeding the current subsequence; - applying the video feature extractor to the current subsequence to extract a current feature representation of the current subsequence; - deriving a training signal from a joint predictability of the preceding and succeeding subsequences given the current feature representation, wherein deriving the training signal comprises extracting a positive comparative example from the preceding subsequence followed by the succeeding subsequence; extracting a negative comparative example from the succeeding subsequence followed by the preceding subsequence; and determining a contrastive loss based on comparing the current feature representation to the positive and negative comparative examples; - updating the set of parameters of the video feature extractor based on the training signal; - outputting the trained video feature extractor.
A second sub-gateway charging method, the method comprises: receiving, by the second sub-gateway, a first message from a first sub-gateway, wherein the first message indicates a charging policy of an access user, wherein the second sub-gateway is a forwarding plane gateway, the second sub-gateway is for forwarding data and collecting charging information, and the first sub-gateway is a control plane gateway; collecting, by the second sub-gateway, charging information of the access user according to the charging policy indicated by the first message; and sending, by the second sub-gateway, a second message to the first sub-gateway, wherein the second message carries the charging information. receiving, by the second sub-gateway, a first message from a first sub-gateway, wherein the first message indicates a charging policy of an access user, wherein the second sub-gateway is a forwarding plane gateway, the second sub-gateway is for forwarding data and collecting charging information, and the first sub-gateway is a control plane gateway; collecting, by the second sub-gateway, charging information of the access user according to the charging policy indicated by the first message; and sending, by the second sub-gateway, a second message to the first sub-gateway, wherein the second message carries the charging information.
A rotary atomization head (1; 1a) attachable to a rotary shaft of a coating device such that a coating material is supplied to the rotary atomization head (1; 1a) when the rotary atomization head (1; 1a) is attached to the rotary shaft of the coating device, the rotary atomization head (1; 1a) comprising: a diffusion surface configured to diffuse the coating material toward an outer edge part by centrifugal force; and a plurality of grooves (124; 125) formed on the outer edge part, wherein the plurality of grooves (124; 125) is configured to extend in a radial direction, the plurality of grooves (124; 125) includes a first groove (1241; 1251) and a second groove (1242; 1252), a depth of a discharge end (1241a; 1251a) of the first groove (1241; 1251) is set greater than a depth of a discharge end (1242a; 1252a) of the second groove (1242; 1252), and a width of the discharge end (1241a; 1251a) of the first groove (1241; 1251) is set equal to a width of the discharge end (1242a; 1252a) of the second groove (1242; 1252), characterized in that the first groove (1241; 1251) and the second groove (1242; 1252) are alternately arranged in a circumferential direction, a depth and a width of the first groove (1241; 1251) are formed so as to gradually increase from an inside in the radial direction to the discharge end (1241a; 1251a) in a direction in which the first groove (1241; 1251) extends, and a depth and a width of the second groove (1242; 1252) are formed so as to gradually increase from the inside in the radial direction to the discharge end (1242a; 1252a) in a direction in which the second groove (1242; 1252) extends. a diffusion surface configured to diffuse the coating material toward an outer edge part by centrifugal force; and a plurality of grooves (124; 125) formed on the outer edge part, wherein the plurality of grooves (124; 125) is configured to extend in a radial direction, the plurality of grooves (124; 125) includes a first groove (1241; 1251) and a second groove (1242; 1252), a depth of a discharge end (1241a; 1251a) of the first groove (1241; 1251) is set greater than a depth of a discharge end (1242a; 1252a) of the second groove (1242; 1252), and a width of the discharge end (1241a; 1251a) of the first groove (1241; 1251) is set equal to a width of the discharge end (1242a; 1252a) of the second groove (1242; 1252), characterized in that the first groove (1241; 1251) and the second groove (1242; 1252) are alternately arranged in a circumferential direction, a depth and a width of the first groove (1241; 1251) are formed so as to gradually increase from an inside in the radial direction to the discharge end (1241a; 1251a) in a direction in which the first groove (1241; 1251) extends, and a depth and a width of the second groove (1242; 1252) are formed so as to gradually increase from the inside in the radial direction to the discharge end (1242a; 1252a) in a direction in which the second groove (1242; 1252) extends.
A method comprising: growing a Ill-nitride structure on a substrate, the Ill-nitride structure comprising: a template comprising: a first layer grown directly on the substrate, the first layer being substantially free of indium; a second layer grown over the first layer, wherein the second layer comprises indium; and a third layer disposed between the first layer and the second layer and in direct contact with the first layer, wherein the third layer is a non-single crystal layer; and_device layers grown over the template, the device layers comprising a III- nitride light emitting layer disposed between an n-type region and a p-type region characterized in that - the third layer is substantially free of indium; and - the second layer is a non-single crystal layer. - the third layer is substantially free of indium; and - the second layer is a non-single crystal layer.
A method for producing a hot-rolled steel product, characterized in that it is arranged a steel billet, whose composition as a percentage by weight is C 0.075 - 0.12% Si 0.1 - 0.8% Mn 0.8 - 1.7% Al 0.015 - 0.08% P less than 0.012% S less than 0.005% Cr 0.2 - 1.3% Mo 0.15 - 0.80% Ti 0.01 - 0.05% B 0.0005 - 0.003% V 0.02 - 0.10% Nb less than 0.3% Ni less than 1% Cu less than 0.5% the rest being Fe and unavoidable impurities, in which method the steel billet having said composition is heated to the austenitizing temperature of 1200 - 1350 °C, and hot-rolled (2, 3) to the desired thickness such that the rolling temperature of the billet at the last pass is 760 - 960 °C, and direct quenched after the last pass conducted using one-step cooling at a cooling rate of 30 - 150 °C /s to a temperature of 300 °C at the most, which direct quenching is conducted at the latest 15 s after the last hot-rolling pass, and in that the hot-rolled steel product is a strip steel, which, after being direct quenched, is coiled and subsequently temper annealed at a temperature of 200 - 700 °C for 24 hours at the most, and in that the austenite of the hot-rolled steel billet is flattened before the direct quenching so that average flattening ratio of the grain of the microstructure of the steel is greater than 2.
A cap for engaging a threaded neck at a beverage container opening, the cap comprising: a body having a lower cavity and an upper cavity that define a passageway from an upper opening to a lower opening of the body, the lower cavity defined by a sidewall with a thread arranged at an inner side of the sidewall to engage with the threaded neck; a barrier material arranged in the passageway between the upper and lower openings to engage with the container opening to seal the opening closed upon threaded engagement of the body thread with the threaded neck of the container; and a septum in the upper cavity of the body and positioned above the barrier material, the septum having an upper surface at the upper opening and being compressed by the body in radial and/or axial directions, the septum and the barrier material being arranged to be pierced by a needle extended from the upper opening toward the lower opening, the septum arranged to reseal to prevent leakage of beverage from the container or gas into the container after withdrawal of a needle that penetrates through the septum. a body having a lower cavity and an upper cavity that define a passageway from an upper opening to a lower opening of the body, the lower cavity defined by a sidewall with a thread arranged at an inner side of the sidewall to engage with the threaded neck; a barrier material arranged in the passageway between the upper and lower openings to engage with the container opening to seal the opening closed upon threaded engagement of the body thread with the threaded neck of the container; and a septum in the upper cavity of the body and positioned above the barrier material, the septum having an upper surface at the upper opening and being compressed by the body in radial and/or axial directions, the septum and the barrier material being arranged to be pierced by a needle extended from the upper opening toward the lower opening, the septum arranged to reseal to prevent leakage of beverage from the container or gas into the container after withdrawal of a needle that penetrates through the septum.
A superconducting flux pump circuit comprising: a charging loop comprising a high T c superconductor, HTS; a load loop comprising a high T c superconductor, HTS; a superconducting HTS connection which is simultaneously part of said charging loop and said load loop; and a controller to control a state of said connection between a first conductive state and a second conductive state wherein in both said first and second states the connection is in a superconducting state, and wherein a resistance or impedance of said superconducting connection is higher in said first conductive state than in said second conductive state; such that said superconducting circuit is configured to induce flux flow between said charging loop and said load loop when said connection is in said first conductive state, and to inhibit flux flow between said charging loop and said load loop when said connection is in said second conductive state. a charging loop comprising a high T c superconductor, HTS; a load loop comprising a high T c superconductor, HTS; a superconducting HTS connection which is simultaneously part of said charging loop and said load loop; and a controller to control a state of said connection between a first conductive state and a second conductive state wherein in both said first and second states the connection is in a superconducting state, and wherein a resistance or impedance of said superconducting connection is higher in said first conductive state than in said second conductive state; such that said superconducting circuit is configured to induce flux flow between said charging loop and said load loop when said connection is in said first conductive state, and to inhibit flux flow between said charging loop and said load loop when said connection is in said second conductive state.
A method for analyzing a stained biopsy or surgical tissue sample being implemented by an image processing system, the method comprising: receiving a whole-slide image from a histopathological tissue slide of the stained tissue sample, analyzing the whole-slide image for detection of biological target objects by execution of an image processing algorithm, applying at least one rule to a plurality of field of views (FOVs) on the whole-slide image for identifying a set of the FOVs (722, 724, 726) for which a criterion is fulfilled that indicates a risk for the respective FOV containing a histopathological artefact or an erroneous detection result caused by the image processing algorithm, wherein the criterion relates to the detection result obtained by execution of the image processing algorithm, displaying at least a sub-set of the set of FOVs for review by an observer, in response to displaying a FOV of the sub-set, receiving an entry signal from the observer that indicates whether the quality of an image portion of the displayed FOV is sufficient for the analysis, outputting a result of the detection of the biological target objects depending on the entry signal. receiving a whole-slide image from a histopathological tissue slide of the stained tissue sample, analyzing the whole-slide image for detection of biological target objects by execution of an image processing algorithm, applying at least one rule to a plurality of field of views (FOVs) on the whole-slide image for identifying a set of the FOVs (722, 724, 726) for which a criterion is fulfilled that indicates a risk for the respective FOV containing a histopathological artefact or an erroneous detection result caused by the image processing algorithm, wherein the criterion relates to the detection result obtained by execution of the image processing algorithm, displaying at least a sub-set of the set of FOVs for review by an observer, in response to displaying a FOV of the sub-set, receiving an entry signal from the observer that indicates whether the quality of an image portion of the displayed FOV is sufficient for the analysis, outputting a result of the detection of the biological target objects depending on the entry signal.
A method for manufacturing a honeycomb structure, comprising: a honeycomb formed body preparing step of extruding a kneaded material obtained by kneading a forming raw material containing a cordierite forming raw material A into a honeycomb shape, to prepare a honeycomb formed body having partition walls defining a plurality of cells extending from a first end face as one end face to a second end face as another end face; a plugged honeycomb formed body preparing step of filling cell openings of the prepared honeycomb formed body with a plugging material which includes a forming raw material containing a cordierite forming raw material B and 5 to 7.5 mass% resin balloon and has a difference in firing shrinkage rate of -1.0 to +2.0% from the honeycomb formed body, to prepare a plugged honeycomb formed body; the difference in firing shrinkage rate from the honeycomb formed body being the difference between (a) the shrinkage rate (%) in dimension before and after firing of the plugging material; and (b) the shrinkage rate (%) in dimension before and after firing at the honeycomb formed body; and a honeycomb structure preparing step of firing the prepared plugged honeycomb formed body to prepare a honeycomb structure provided with porous plugged portions at an end part on a first end face side of a first cell as a predetermined cell and at an end part on the second end face side of a second cell as a remaining cell, among the plurality of cells; wherein the cordierite forming raw material B includes silica having an average particle diameter of 1 to 5 μm. a honeycomb formed body preparing step of extruding a kneaded material obtained by kneading a forming raw material containing a cordierite forming raw material A into a honeycomb shape, to prepare a honeycomb formed body having partition walls defining a plurality of cells extending from a first end face as one end face to a second end face as another end face; a plugged honeycomb formed body preparing step of filling cell openings of the prepared honeycomb formed body with a plugging material which includes a forming raw material containing a cordierite forming raw material B and 5 to 7.5 mass% resin balloon and has a difference in firing shrinkage rate of -1.0 to +2.0% from the honeycomb formed body, to prepare a plugged honeycomb formed body; the difference in firing shrinkage rate from the honeycomb formed body being the difference between (a) the shrinkage rate (%) in dimension before and after firing of the plugging material; and (b) the shrinkage rate (%) in dimension before and after firing at the honeycomb formed body; and a honeycomb structure preparing step of firing the prepared plugged honeycomb formed body to prepare a honeycomb structure provided with porous plugged portions at an end part on a first end face side of a first cell as a predetermined cell and at an end part on the second end face side of a second cell as a remaining cell, among the plurality of cells; wherein the cordierite forming raw material B includes silica having an average particle diameter of 1 to 5 μm.
A user equipment comprising: means for receiving, at the user equipment from a network node of a communication network, information comprising a given physical uplink control channel resource instance allocated to the user equipment, wherein the physical uplink control channel resource instance is allocated to more than one user equipment including the user equipment; means for signaling the network node using the allocated physical uplink control channel resource instance in a given sub-frame; and means for receiving polling from the network node, wherein the polling is a group-based polling of the more than one user equipment including the user equipment, and comprises an uplink grant, characterized in that the polling is received via: i) a dedicated downlink resource when the user equipment is an ultra-reliable and low latency communications, URLLC, user equipment, or ii) a common physical downlink control channel when the user equipment is a non-URLLC user equipment. means for receiving, at the user equipment from a network node of a communication network, information comprising a given physical uplink control channel resource instance allocated to the user equipment, wherein the physical uplink control channel resource instance is allocated to more than one user equipment including the user equipment; means for signaling the network node using the allocated physical uplink control channel resource instance in a given sub-frame; and means for receiving polling from the network node, wherein the polling is a group-based polling of the more than one user equipment including the user equipment, and comprises an uplink grant, characterized in that the polling is received via: i) a dedicated downlink resource when the user equipment is an ultra-reliable and low latency communications, URLLC, user equipment, or ii) a common physical downlink control channel when the user equipment is a non-URLLC user equipment.