mhurhangee/ep-ind-claims huggingface dataset:
An appearance inspection method for inspecting appearance of a to-be-inspected object, the appearance inspection method being executed using an appearance inspection apparatus and comprising: an imaging step of imaging a plurality of the to-be-inspected objects using a camera of an imaging unit and acquiring images thereof; a first sorting step of sorting the images as non-defective product estimation images within a predetermined standard and defective product estimation images outside the standard by using an algorithm of one class learning, the first sorting step being executed using a processing unit of a computer device; and a second sorting step of detecting a defective product from the to-be-inspected objects by extracting features of defects from the defective product estimation images using an algorithm of object detection, and searching the images for the features by comparing the image data acquired in the imaging step with the features of the defects from the defective product estimation images sorted in the first sorting step, the second sorting step being executed using the processing unit. an imaging step of imaging a plurality of the to-be-inspected objects using a camera of an imaging unit and acquiring images thereof; a first sorting step of sorting the images as non-defective product estimation images within a predetermined standard and defective product estimation images outside the standard by using an algorithm of one class learning, the first sorting step being executed using a processing unit of a computer device; and a second sorting step of detecting a defective product from the to-be-inspected objects by extracting features of defects from the defective product estimation images using an algorithm of object detection, and searching the images for the features by comparing the image data acquired in the imaging step with the features of the defects from the defective product estimation images sorted in the first sorting step, the second sorting step being executed using the processing unit.
Transforming station for transforming plastic preforms into plastic containers, wherein the transforming station has two side part supports (4, 6) for supporting side parts (14, 16) of a blow mold as well as a bottom part support for supporting a bottom part of the blow mold, wherein, together, these side parts (14, 16) and the bottom part of the blow mold form a hollow space, within which the plastic preforms are transformable into the plastic containers by application with a flowable medium, wherein the bottom part support comprises a base support, which is arranged in a fixed manner relative to the side part supports (4, 6) in a closed condition of the blow mold in a longitudinal direction of the plastic preforms to be expanded, as well as a bottom part support element being arranged on this base support, which is movable relative to the base support in this longitudinal direction, wherein, by means of at least one first coupling device a fluid connection for a flowable medium between the base support and the bottom part support element is able to be established and this coupling device is at least partially formed to be free from leakage, characterized in that the coupling device has two coupling elements (32, 34) being able to be connected with each other and separated from each other, as well as a flow agent leakage preventing device, which, in the case of separation of the coupling elements, prevents leakage of the flow agent from at least one of those two coupling elements.
A biopsy device, comprising: (a) a probe portion, wherein the probe portion comprises: (i) a probe body comprising a main portion and a distal probe portion extending from the main portion, (ii) a needle extending distally from the probe body, (iii) a cutter movable relative to the needle to sever tissue, and (iv) a tissue sample holder; and (b) a holster portion, wherein the holster portion comprises: (i) a holster body, wherein the holster body includes a probe securing feature, wherein the probe securing feature includes an upright portion and an overhang portion extending transversely from the upright portion, wherein the upright portion and the overhang portion define a gap and are configured to partially encompass at least part of the probe body within the gap, and (ii) a cutter drive feature operable to drive the cutter, characterized in that the distal probe portion comprises a top surface and a lateral surface formed substantially perpendicular to each other and sized such that the distal probe portion nests beneath the overhang and adjacent to the upwardly extending portion when the probe is coupled to the holster. (a) a probe portion, wherein the probe portion comprises: (i) a probe body comprising a main portion and a distal probe portion extending from the main portion, (ii) a needle extending distally from the probe body, (iii) a cutter movable relative to the needle to sever tissue, and (iv) a tissue sample holder; and (i) a probe body comprising a main portion and a distal probe portion extending from the main portion, (ii) a needle extending distally from the probe body, (iii) a cutter movable relative to the needle to sever tissue, and (iv) a tissue sample holder; and (b) a holster portion, wherein the holster portion comprises: (i) a holster body, wherein the holster body includes a probe securing feature, wherein the probe securing feature includes an upright portion and an overhang portion extending transversely from the upright portion, wherein the upright portion and the overhang portion define a gap and are configured to partially encompass at least part of the probe body within the gap, and (ii) a cutter drive feature operable to drive the cutter, (i) a holster body, wherein the holster body includes a probe securing feature, wherein the probe securing feature includes an upright portion and an overhang portion extending transversely from the upright portion, wherein the upright portion and the overhang portion define a gap and are configured to partially encompass at least part of the probe body within the gap, and (ii) a cutter drive feature operable to drive the cutter,
A container for containing a fluid substance, the container comprising a surface that comes into contact with said fluid substance and having, formed on said surface, a liquid film for improving sliding property to said fluid substance, the liquid film containing solid particles of particle size of not more than 300 μ m that are dispersed, and capable of rolling, therein.
A fusion protein comprising a first peptide and a second peptide optionally linked together with a linker, wherein the first peptide is an allergen and the second peptide is a targeting unit and the targeting unit consists of an FGL-2 C-terminal peptide according to SEQ ID no 1 or an FcγRIIb receptor binding homologue thereof having least about 95 %, 96 %, 97 %, 98 % or 99 % identity to SEQ ID no 1.
An auxiliary contact mechanism of an electromagnetic contactor, comprising: a case formed to have a box shape; an auxiliary sliding member (20,120) installed above the case, and moving up and down by receiving a pressure from a main contact sliding member; an elastic member accommodated in an insertion groove (21,121) formed in the auxiliary sliding member (20,120); a pressing member (40,140) insertion-installed in an insertion groove (21,121), and moving up and down by an elastic force of the elastic member; and a micro switch turned on/off by the pressing member (40.140), characterized in that the auxiliary contact mechanism of the electromagnetic contactor further comprises a second sliding member which performs an up/down motion within the auxiliary sliding member, wherein the elastic member includes: a first spring disposed on an upper surface of the second sliding member; and a second spring disposed between a lower surface of the second sliding member and the pressing member. a case formed to have a box shape; an auxiliary sliding member (20,120) installed above the case, and moving up and down by receiving a pressure from a main contact sliding member; an elastic member accommodated in an insertion groove (21,121) formed in the auxiliary sliding member (20,120); a pressing member (40,140) insertion-installed in an insertion groove (21,121), and moving up and down by an elastic force of the elastic member; and a micro switch turned on/off by the pressing member (40.140), characterized in that the auxiliary contact mechanism of the electromagnetic contactor further comprises a second sliding member which performs an up/down motion within the auxiliary sliding member, wherein the elastic member includes: a first spring disposed on an upper surface of the second sliding member; and a second spring disposed between a lower surface of the second sliding member and the pressing member. a first spring disposed on an upper surface of the second sliding member; and a second spring disposed between a lower surface of the second sliding member and the pressing member.
Vacuum system for a fiber web machine, the vacuum system including - several vacuum devices each of which is provided with a motor (11, 11'), and - negative pressure lines for leading a vacuum from the vacuum devices to applications, wherein the rotation speed of at least one motor is adapted to be variable, characterized in that the vacuum devices are adapted to maintain constant pressure in an initial part of the negative pressure lines between a control valve arranged in the negative pressure line prior to each application and the vacuum devices, wherein for providing constant pressure, the negative pressure lines have a common manifold which is connected to the vacuum devices, and control devices included in the motors (11, 11') are connected to each other for adjusting the capacity of the vacuum system. - several vacuum devices each of which is provided with a motor (11, 11'), and - negative pressure lines for leading a vacuum from the vacuum devices to applications,
Engineering system for programming a control and setting the parameters of field devices, wherein the engineering system comprises: - a graphical user interface for visualising and editing interconnection information relating to the field devices and the control, - a control manager for generating a control program for the control from the interconnection information and - a synchronisation means for synchronising interconnection-relevant device parameters with the interconnection information, wherein the engineering system has a device parameter manager for reading and editing the interconnection-relevant device parameters. - a graphical user interface for visualising and editing interconnection information relating to the field devices and the control, - a control manager for generating a control program for the control from the interconnection information and - a synchronisation means for synchronising interconnection-relevant device parameters with the interconnection information,
A method for detecting the quantity of a target molecule that may be present in a test sample, the method comprising: (a) preparing a mixture by contacting the test sample with an aptamer comprising a first tag and having a specific affinity for the target molecule, wherein a non-covalent aptamer affinity complex of aptamer and target molecule is formed if said target molecule is present in said test sample, wherein the rate of dissociation (t 1/2) of the aptamer from the target molecule is greater than 20 minutes; (b) exposing the mixture to a first solid support comprising a first capture element, and allowing the first tag to associate with the first capture element; (c) removing any components of the mixture not associated with said first solid support; (d) releasing the aptamer affinity complex from said first solid support; (e) attaching a second tag to said target molecule in the aptamer affinity complex; (f) exposing the released aptamer affinity complex to a second solid support comprising a second capture element and allowing the second tag to associate with said second capture element; (g) removing any uncomplexed aptamer from said mixture by partitioning the uncomplexed aptamer from said aptamer affinity complex; and (h) dissociating the aptamer from said aptamer affinity complex and collecting free aptamers; (i) detecting the quantity of free aptamers collected and quantifying said target by quantifying said aptamers. (a) preparing a mixture by contacting the test sample with an aptamer comprising a first tag and having a specific affinity for the target molecule, wherein a non-covalent aptamer affinity complex of aptamer and target molecule is formed if said target molecule is present in said test sample, wherein the rate of dissociation (t 1/2) of the aptamer from the target molecule is greater than 20 minutes; (b) exposing the mixture to a first solid support comprising a first capture element, and allowing the first tag to associate with the first capture element; (c) removing any components of the mixture not associated with said first solid support; (d) releasing the aptamer affinity complex from said first solid support; (e) attaching a second tag to said target molecule in the aptamer affinity complex; (f) exposing the released aptamer affinity complex to a second solid support comprising a second capture element and allowing the second tag to associate with said second capture element; (g) removing any uncomplexed aptamer from said mixture by partitioning the uncomplexed aptamer from said aptamer affinity complex; and (h) dissociating the aptamer from said aptamer affinity complex and collecting free aptamers; (i) detecting the quantity of free aptamers collected and quantifying said target by quantifying said aptamers.
A compound selected from the group consisting of Compounds 717 to 722, 724 to 726, 729 to 732, 735 and 736: 717 718 719 720 721 722 724 725 726 729 730 731 732 735 736 or a pharmaceutically acceptable salt thereof.
A method of decoding video data, the method comprising: deriving, for a current block of video data and using decoder side intra mode derivation, DIMD, a list of intra modes using reconstructed samples of neighboring blocks; constructing, for the current block, a most probable mode, MPM, list, wherein constructing the MPM list comprises inserting, into the MPM list, at least one intra mode from the derived list of intra modes, wherein inserting the at least one intra mode from the derived list of intra modes into the MPM list comprises: inserting, into the MPM list, a first candidate from the list of intra modes derived using DIMD; and selectively inserting, in to the MPM list, a second candidate from the list of intra modes derived using DIMD; and predicting, using a candidate selected from the constructed MPM list, the current block. deriving, for a current block of video data and using decoder side intra mode derivation, DIMD, a list of intra modes using reconstructed samples of neighboring blocks; constructing, for the current block, a most probable mode, MPM, list, wherein constructing the MPM list comprises inserting, into the MPM list, at least one intra mode from the derived list of intra modes, wherein inserting the at least one intra mode from the derived list of intra modes into the MPM list comprises: inserting, into the MPM list, a first candidate from the list of intra modes derived using DIMD; and selectively inserting, in to the MPM list, a second candidate from the list of intra modes derived using DIMD; and inserting, into the MPM list, a first candidate from the list of intra modes derived using DIMD; and selectively inserting, in to the MPM list, a second candidate from the list of intra modes derived using DIMD; and predicting, using a candidate selected from the constructed MPM list, the current block.
A method for transmitting an uplink signal by a communication device in a wireless communication system, the method comprising: receiving, by the communication device, a control channel signal including a resource allocation field; and transmitting, by the communication device, an uplink signal according to the control channel signal, wherein a size of the resource allocation field in the control channel signal is represented by the following equation: Max ⌈ log 2 ⌈ N RB UL / P + 1 ⌉ 4 ⌉ ⌈ log 2 N RB UL N RB UL + 1 / 2 ⌉ where, N RB UL is the number of uplink resource blocks (RBs), P is a size of uplink Resource Block Group (RBGs), ┌ ┐ is a ceiling function, Max ( x,y) is a higher one of x and y, and x y is x x − 1 ⋯ x − y + 1 y y − 1 ⋯ 1. receiving, by the communication device, a control channel signal including a resource allocation field; and transmitting, by the communication device, an uplink signal according to the control channel signal, wherein a size of the resource allocation field in the control channel signal is represented by the following equation: Max ⌈ log 2 ⌈ N RB UL / P + 1 ⌉ 4 ⌉ ⌈ log 2 N RB UL N RB UL + 1 / 2 ⌉ where, N RB UL is the number of uplink resource blocks (RBs), P is a size of uplink Resource Block Group (RBGs), ┌ ┐ is a ceiling function, Max ( x,y) is a higher one of x and y, and x y is x x − 1 ⋯ x − y + 1 y y − 1 ⋯ 1.
A compound represented by the following formula: wherein R 1 and R 2 are each a hydrogen atom and R 3 is a hydrogen atom or a methyl group; A is -CONH- or -COO-; B is -CONH-; m is an integer of from 1 to 3; n is an integer of from 1 to 3; R 4 is an alkylene group having 4 to 16 carbon atoms; R 5 is one selected from the group consisting of -CH 2 -Ph-, -CH(CH 3)- and -CH 2 -; R 6 and R 7 each independently are a hydrogen atom, a methyl group, an ethyl group or a phenyl group.
An air-conditioning apparatus comprising: a refrigerant circuit in which a compressor, a heat source side heat exchanger, an expansion valve, and a use side heat exchanger are connected by pipes, and refrigerant circulates; a first on-off valve provided at a pipe between the expansion valve and the use side heat exchanger; a bypass branching from a pipe between the expansion valve and the first on-off valve or a pipe between the heat source side heat exchanger and the expansion valve and connected to a pipe on a suction side of the compressor; and a refrigerant storage unit configured to store the refrigerant passed through the bypass, the refrigerant storage unit storing the refrigerant flowing into the bypass from the heat source side heat exchanger in a pump down operation in which the compressor is adapted to operate with the first on-off valve being in a closed state; characterized by further comprising: a first bypass on-off valve provided on a refrigerant inflow side of the bypass; and a second bypass on-off valve provided on a refrigerant outflow side of the bypass, wherein the refrigerant storage unit comprises a container storing the refrigerant, and is provided at the bypass between the first bypass on-off valve and the second bypass on-off valve, the pump down operation is performed with the first bypass on-off valve being in an open state and the second bypass on-off valve being in the closed state, and the refrigerant flowing into the bypass is stored in the container. a refrigerant circuit in which a compressor, a heat source side heat exchanger, an expansion valve, and a use side heat exchanger are connected by pipes, and refrigerant circulates; a first on-off valve provided at a pipe between the expansion valve and the use side heat exchanger; a bypass branching from a pipe between the expansion valve and the first on-off valve or a pipe between the heat source side heat exchanger and the expansion valve and connected to a pipe on a suction side of the compressor; and a refrigerant storage unit configured to store the refrigerant passed through the bypass, the refrigerant storage unit storing the refrigerant flowing into the bypass from the heat source side heat exchanger in a pump down operation in which the compressor is adapted to operate with the first on-off valve being in a closed state; a first bypass on-off valve provided on a refrigerant inflow side of the bypass; and a second bypass on-off valve provided on a refrigerant outflow side of the bypass, wherein the refrigerant storage unit comprises a container storing the refrigerant, and is provided at the bypass between the first bypass on-off valve and the second bypass on-off valve, the pump down operation is performed with the first bypass on-off valve being in an open state and the second bypass on-off valve being in the closed state, and the refrigerant flowing into the bypass is stored in the container.
A combination of a wire and a contact comprising a contact main body comprising a base portion and having a wire fixing portion arranged on a back side of the base portion and fixed with the wire, and a contacting member formed separately from the contact main body, and connected to the wire and configured to be in contact with a mating contact, the contacting member comprising a fixing portion and an extension portion extending backward from the fixing portion up to the wire fixing portion, a core wire of the wire being arranged on the extension portion, wherein an insulation layer is provided on a portion of the contact main body contacting with the contacting member so that the contacting member and the contact main body are insulated from each other, characterized in that the fixing portion is fixed to a contacting member fixing portion of the contact main body arranged on a front side of the base portion; the core wire is connected to the extension portion by the wire fixing portion; and the insulation layer is also provided on a portion of the wire fixing portion contacting the core wire of the wire in addition to the portion of the contact main body contacting with the contacting member so that the core wire of the wire and the contact main body are insulated from each other. the fixing portion is fixed to a contacting member fixing portion of the contact main body arranged on a front side of the base portion; the core wire is connected to the extension portion by the wire fixing portion; and the insulation layer is also provided on a portion of the wire fixing portion contacting the core wire of the wire in addition to the portion of the contact main body contacting with the contacting member so that the core wire of the wire and the contact main body are insulated from each other.
Module made of an insulating complex comprising a waterproof fabric, the module being characterised in that it also comprises a layer of insulating material surrounded by the waterproof fabric and a backing fabric, said backing fabric covering one face of said insulating material that will face a wall of a building, and said waterproof fabric covering at least all the other faces of said layer of insulating material, said module being made entirely of a textile material.
An edaravone suspension for human oral administration, comprising: edaravone particles; a dispersant; and water; wherein the dispersant is one or more selected from polyvinyl alcohol, methylcellulose, hypromellose, sucrose fatty acid ester and polysorbate. edaravone particles; a dispersant; and water;