mhurhangee/ep-ind-claims huggingface dataset:
A transmission line comprising: two tapered lines (32AA, 32AB; 32BA, 32BB) having a tapered planar shape and arranged in parallel; an opposite line (34A, 34B; 34AA & 34AB, 34BA & 34BB) provided in opposition to the narrower width sides of the two tapered lines; and bonding wires or ribbons (38AA, 38AB; 38BA, 38BB) for connecting the narrower width sides of the two tapered lines and the opposite line, wherein the bonding wires or ribbons comprise a first set (38AA; 38BA) connecting one (32AA; 32BA) of the two tapered lines and the opposite line, and a second set (38AB; 38BB) connecting the other (32AB; 32BB) of the two tapered lines and the opposite line, characterized in that the distance between two outer edges on the narrower width sides of the two tapered lines arranged in parallel is greater than the distance between outer edges on the opposite side of the opposite line in opposition to the narrower width sides of the two tapered lines a plurality of wires or ribbons in the first set (38AA; 38BA) are arranged at regular intervals along the narrower width side of the one tapered line (32AA; 32BA) and extend in a first direction in parallel with one another when projected on the plane of the opposite line, and wherein a plurality of wires or ribbons in the second set (38AB; 38BB) are arranged at regular intervals along the narrower width side of the other tapered line (32AB; 32BB) and extend in a second direction in parallel with one another, the second direction being different from the first direction when projected on the plane of the opposite line. two tapered lines (32AA, 32AB; 32BA, 32BB) having a tapered planar shape and arranged in parallel; an opposite line (34A, 34B; 34AA & 34AB, 34BA & 34BB) provided in opposition to the narrower width sides of the two tapered lines; and bonding wires or ribbons (38AA, 38AB; 38BA, 38BB) for connecting the narrower width sides of the two tapered lines and the opposite line, wherein the bonding wires or ribbons comprise a first set (38AA; 38BA) connecting one (32AA; 32BA) of the two tapered lines and the opposite line, and a second set (38AB; 38BB) connecting the other (32AB; 32BB) of the two tapered lines and the opposite line, characterized in that the distance between two outer edges on the narrower width sides of the two tapered lines arranged in parallel is greater than the distance between outer edges on the opposite side of the opposite line in opposition to the narrower width sides of the two tapered lines a plurality of wires or ribbons in the first set (38AA; 38BA) are arranged at regular intervals along the narrower width side of the one tapered line (32AA; 32BA) and extend in a first direction in parallel with one another when projected on the plane of the opposite line, and wherein a plurality of wires or ribbons in the second set (38AB; 38BB) are arranged at regular intervals along the narrower width side of the other tapered line (32AB; 32BB) and extend in a second direction in parallel with one another, the second direction being different from the first direction when projected on the plane of the opposite line.
A saxatilin derivative comprising saxatilin, which is composed of the amino acid sequence of SEQ ID NO: 2, conjugated to an immunoglobulin Fc region.
A process of fabricating a substrate (12; 32; 56; 62), the process comprising: disposing a substrate (12; 32; 56; 62) at a laser processing assembly comprising at least one laser operable to emit a laser beam, the substrate (12; 32; 56; 62) being substantially transparent to the laser beam; focusing the laser beam into a laser beam focal line, viewed along a beam propagation direction of the laser beam; directing the laser beam focal line into the substrate (12; 32; 56; 62), the laser beam focal line generating an induced absorption within the substrate (12; 32; 56; 62), the induced absorption producing a defect (36; 44; 54) along the laser beam focal line within the substrate (12; 32; 56; 62); translating the substrate (12; 32; 56; 62) relative to the laser beam, thereby laser drilling a plurality of internal defects (36; 44; 54) within the material; creating a first plurality of defects (36; 44; 54) and a second plurality of defects (36; 44; 54), wherein the second plurality of defects (36; 44; 54) define a closed boundary and the first plurality of defects (36; 44; 54) are disposed within the closed boundary; and separating at least one component piece of the substrate (12; 32; 56; 62) along the closed boundary defined by the second plurality of defects (36; 44; 54). disposing a substrate (12; 32; 56; 62) at a laser processing assembly comprising at least one laser operable to emit a laser beam, the substrate (12; 32; 56; 62) being substantially transparent to the laser beam; focusing the laser beam into a laser beam focal line, viewed along a beam propagation direction of the laser beam; directing the laser beam focal line into the substrate (12; 32; 56; 62), the laser beam focal line generating an induced absorption within the substrate (12; 32; 56; 62), the induced absorption producing a defect (36; 44; 54) along the laser beam focal line within the substrate (12; 32; 56; 62); translating the substrate (12; 32; 56; 62) relative to the laser beam, thereby laser drilling a plurality of internal defects (36; 44; 54) within the material; creating a first plurality of defects (36; 44; 54) and a second plurality of defects (36; 44; 54), wherein the second plurality of defects (36; 44; 54) define a closed boundary and the first plurality of defects (36; 44; 54) are disposed within the closed boundary; and separating at least one component piece of the substrate (12; 32; 56; 62) along the closed boundary defined by the second plurality of defects (36; 44; 54).
An electroluminescent wallpaper, comprising: • a substrate with a first protective layer, • an electroluminescent layer that covers said first protective layer at least in part, and • a pattern layer that covers said electroluminescent layer at least in part, wherein said electroluminescent layer comprises a backside electrode, a dielectric layer, a luminous layer, and a transparent front electrode, said backside electrode covers said first protective layer at least in part, and a second protective layer covers said transparent front electrode completely, and said dielectric layer comprises titanium dioxide, a wetting agent, paraffin, and a binder. • a substrate with a first protective layer, • an electroluminescent layer that covers said first protective layer at least in part, and • a pattern layer that covers said electroluminescent layer at least in part,
At least one glutarate compound for use in preventing, inhibiting, reducing, or treating an ischemia-reperfusion injury (IR injury) to a tissue in a subject, wherein the at least one glutarate compound is administered to the tissue or the subject in a therapeutically effective amount before, during, and/or after an event that causes an IR injury, wherein the therapeutically effective amount is 5 - 20 milligrams per kilogram, and wherein the at least one glutarate compound is α-ketoglutarate (α-KG), 2-hydroxyglutaric acid, or disodium -2-hydroxyglutarate (S-2HG). wherein the at least one glutarate compound is administered to the tissue or the subject in a therapeutically effective amount before, during, and/or after an event that causes an IR injury, wherein the therapeutically effective amount is 5 - 20 milligrams per kilogram, and wherein the at least one glutarate compound is α-ketoglutarate (α-KG), 2-hydroxyglutaric acid, or disodium -2-hydroxyglutarate (S-2HG).
Supports for supporting mould parts and/or cores in investment casting, comprising support material comprising:- • a mechanically supportive continuous matrix phase comprising alumina; • at least one second phase interpenetrating the matrix phase and providing a pathway for leachants to penetrate into the material; wherein the support material comprises: in the range of 1 wt% and 12 wt% of the second phase; and less than 15 vol% voids as measured by image analysis as set out in the description. • a mechanically supportive continuous matrix phase comprising alumina; • at least one second phase interpenetrating the matrix phase and providing a pathway for leachants to penetrate into the material; in the range of 1 wt% and 12 wt% of the second phase; and less than 15 vol% voids as measured by image analysis as set out in the description.
A retainer, comprising: a center body component comprising a plurality of center body troughs; a single, raised nodule located on the center body component, wherein the nodule has a channel running through it in a horizontal direction relative to the center body component; characterized by two independent compatible components (20, 24), wherein each independent component comprises a plurality of compatible permanently connected troughs (22, 26), wherein the compatible troughs of the two compatible components couple with at least part of the plurality of center body troughs, and wherein each independent component comprises a channel running through it in a horizontal direction; and a support screw that is inserted into the channel of the one independent compatible component, through the channel of the single, raised nodule and into the channel of the second independent compatible component, wherein the support screw locks the center body component together with the two independent compatible components (20,24). a center body component comprising a plurality of center body troughs; a single, raised nodule located on the center body component, wherein the nodule has a channel running through it in a horizontal direction relative to the center body component; characterized by two independent compatible components (20, 24), wherein each independent component comprises a plurality of compatible permanently connected troughs (22, 26), wherein the compatible troughs of the two compatible components couple with at least part of the plurality of center body troughs, and wherein each independent component comprises a channel running through it in a horizontal direction; and a support screw that is inserted into the channel of the one independent compatible component, through the channel of the single, raised nodule and into the channel of the second independent compatible component, wherein the support screw locks the center body component together with the two independent compatible components (20,24).
An image coding method comprising: a video layer of generating a coded stream by coding an image composed of one or more pictures; and a system layer of generating a system stream for transmitting or storing the coded stream, said video layer comprising coding the image to generate the coded stream, and said system layer comprising multiplexing the coded stream generated in said coding and an identifier to generate the system stream, the identifier indicating whether or not a format of the image is a left-right mixed format, the left-right mixed format being a format that includes a base layer and an enhancement layer for providing a plurality of degrees of accuracy and that has a left view image area and a right view image area in each picture, the degrees of accuracy being related to a resolution, a frame rate, a total number of pixels, a pixel depth, or a signal to noise ratio, the left view image area being an area in which an image of a left view is displayed, and the right view image area being an area in which an image of a right view is displayed, wherein said system layer is compliant with MPEG-2 Systems, said coding includes, in the case where the format of the image is the left-right mixed format, coding the image that includes the base layer and the enhancement layer and that has the left view image area and the right view image area in each picture, to generate two coded streams of the base layer and the enhancement layer, and said multiplexing includes (i) in the case where said video layer is compliant with a multiview video coding scheme in the MPEG-2 Systems, inserting the identifier in a first descriptor defined for the multiview video coding scheme in the MPEG-2 Systems, and multiplexing the two coded streams and the first descriptor that includes the identifier, to generate the system stream, and (ii) in the case where said video layer is compliant with a scalable video coding scheme in the MPEG-2 Systems, inserting the identifier in a second descriptor defined for the scalable video coding scheme in the MPEG-2 Systems, and multiplexing the two coded streams and the second descriptor that includes the identifier, to generate the system stream.
Method for purging paint circuits coated with a non-cured paint, wherein a paint circuit is brought into contact with a waterborne purge cleaner solution comprising at least one glycolether, characterized in that it additionally comprises at least one water-soluble amine having 7 to 15 carbon atoms.
A syringe barrel comprising a hollow body with an opening configured to receive a stopper, a tip configured for connection to a hollow needle, and a compressible spacer arranged inside the hollow body and adjacent to the tip, wherein the spacer comprises an insoluble material configured to displace a liquid filled in the hollow body, characterized in that there is a gap between the compressible spacer and the inner surface of the barrel, and the compressible spacer is configured to displace but not to absorb or retain the liquid inside of the barrel. a hollow body with an opening configured to receive a stopper, a tip configured for connection to a hollow needle, and a compressible spacer arranged inside the hollow body and adjacent to the tip, wherein the spacer comprises an insoluble material configured to displace a liquid filled in the hollow body, characterized in that there is a gap between the compressible spacer and the inner surface of the barrel, and the compressible spacer is configured to displace but not to absorb or retain the liquid inside of the barrel.
An installation device for an acetabular cup (114, 830) disposed in a pelvic bone, the acetabular cup (114, 830) including an outer shell having a sidewall defining an inner cavity and an opening with the sidewall having a periphery around the opening and with the acetabular cup (114, 830) having a desired installation depth relative to the bone, a desired abduction angle relative to the bone, and a desired anteversion angle relative to the bone, comprising: a controller including a trigger (130, 804); 10 a support (142, 828) having a proximal end and a distal end opposite of said proximal end, said support further having a longitudinal axis extending from said proximal end to said distal end with said proximal end coupled to said controller, said support (142, 828) further having an adapter coupled to said distal end with said adapter configured to secure the acetabular cup (114, 830); and 15 an oscillator coupled to said controller and to said support (142, 828), said oscillator configured to generate an original series of pulses, each pulse having a direction including a motion with any of six degrees of freedom, and to control an oscillation frequency and an oscillation magnitude of said support (142, 828) with said oscillation frequency and said oscillation magnitude configured to install the acetabular cup (114, 830) at the installation depth with the desired abduction angle and the desired anteversion angle without use of an impact force applied to the acetabular cup (114, 830). 10 a support (142, 828) having a proximal end and a distal end opposite of said proximal end, said support further having a longitudinal axis extending from said proximal end to said distal end with said proximal end coupled to said controller, said support (142, 828) further having an adapter coupled to said distal end with said adapter configured to secure the acetabular cup (114, 830); and 15 an oscillator coupled to said controller and to said support (142, 828), said oscillator configured to generate an original series of pulses, each pulse having a direction including a motion with any of six degrees of freedom, and to control an oscillation frequency and an oscillation magnitude of said support (142, 828) with said oscillation frequency and said oscillation magnitude configured to install the acetabular cup (114, 830) at the installation depth with the desired abduction angle and the desired anteversion angle without use of an impact force applied to the acetabular cup (114, 830).
A method for making a fuel rod comprising: loading a tube having a first open end and a second open end with nuclear fuel (14, 14'); compressing the fuel-loaded tube around the fuel to reduce free space in the tube; closing at least one of the first open end and the second open end of the tube; filling the fuel-loaded tube with a gas suitable for transferring heat; and, placing the compressed tube within an outer pre-formed protective cover such that a gap defined between the outer preformed protective cover and the compressed tube is sized to minimize forces exerted by the swelling of the nuclear fuel (14, 14') during irradiation. loading a tube having a first open end and a second open end with nuclear fuel (14, 14'); compressing the fuel-loaded tube around the fuel to reduce free space in the tube; closing at least one of the first open end and the second open end of the tube; filling the fuel-loaded tube with a gas suitable for transferring heat; and, placing the compressed tube within an outer pre-formed protective cover such that a gap defined between the outer preformed protective cover and the compressed tube is sized to minimize forces exerted by the swelling of the nuclear fuel (14, 14') during irradiation.
A robot control method, comprising: receiving location information of a robot from the robot located in a space; specifying a camera placed in a specific space corresponding to the location information among multiple cameras placed in the space, based on the location information; receiving an image from each of a camera included in the robot and the specified camera; and outputting the images received from the robot and the specified camera to a display unit. receiving location information of a robot from the robot located in a space; specifying a camera placed in a specific space corresponding to the location information among multiple cameras placed in the space, based on the location information; receiving an image from each of a camera included in the robot and the specified camera; and outputting the images received from the robot and the specified camera to a display unit.
A method for measuring an object using a scanning probe carried by a machine tool, the machine tool having a probe holder for retaining the scanning probe and a carrier for carrying the object to be measured, the method comprising the steps of; (i) using the machine tool to move the probe holder relative to the carrier along a pre-programmed scan path, the pre-programmed scan path comprising at least one first region (106a-d) where the movement along the pre-programed scan path is at a first feedrate, at least one second region where the movement along the pre-programed scan path is at a second feedrate, and at least one acceleration zone (108a-h, 109a, 109b) located between the at least one first region (106a-d) and the at least one second region, (ii) measuring acceleration between the probe holder and the carrier using at least one accelerometer whilst the pre-programmed scan path is traversed, (iii) collecting probe data whilst the pre-programmed scan path is traversed with the scanning probe retained by the probe holder and the object carried by the carrier, the scanning probe thereby scanning the surface of the object, and (iv) using the acceleration measured in step (ii) to identify the at least one acceleration zone (108a-h, 109a, 109b) of the pre-programmed scan path and thereby determine one or more positions along the scan path at which the probe data of step (iii) were collected. (i) using the machine tool to move the probe holder relative to the carrier along a pre-programmed scan path, the pre-programmed scan path comprising at least one first region (106a-d) where the movement along the pre-programed scan path is at a first feedrate, at least one second region where the movement along the pre-programed scan path is at a second feedrate, and at least one acceleration zone (108a-h, 109a, 109b) located between the at least one first region (106a-d) and the at least one second region, (ii) measuring acceleration between the probe holder and the carrier using at least one accelerometer whilst the pre-programmed scan path is traversed, (iii) collecting probe data whilst the pre-programmed scan path is traversed with the scanning probe retained by the probe holder and the object carried by the carrier, the scanning probe thereby scanning the surface of the object, and (iv) using the acceleration measured in step (ii) to identify the at least one acceleration zone (108a-h, 109a, 109b) of the pre-programmed scan path and thereby determine one or more positions along the scan path at which the probe data of step (iii) were collected.
An organic light-emitting display apparatus, comprising: a substrate including a plurality of pixel areas (PA1, PA2, PA3) and non-pixel areas in a display area; a plurality of pixel electrodes (211, 212, 213) respectively corresponding to the plurality of pixel areas; a pixel-defining layer including a cover portion and openings, wherein the cover portion covers an edge region of each of the plurality of pixel electrodes, and each of the openings exposes a central portion of a pixel electrode among the plurality of pixel electrodes; an auxiliary electrode located such that the auxiliary electrode corresponds to at least a portion of a top surface of the cover portion; and an intermediate layer (221, 222, 223) and a counter electrode (231, 232, 233), each located in the openings, wherein the pixel-defining layer has an under-cut structure in which the at least a portion of the top surface of the cover portion is recessed from the auxiliary electrode; wherein a portion of the intermediate layer extends along a side surface of an opening of the pixel-defining layer and a portion of the intermediate layer extends over the auxiliary electrode. a substrate including a plurality of pixel areas (PA1, PA2, PA3) and non-pixel areas in a display area; a plurality of pixel electrodes (211, 212, 213) respectively corresponding to the plurality of pixel areas; a pixel-defining layer including a cover portion and openings, wherein the cover portion covers an edge region of each of the plurality of pixel electrodes, and each of the openings exposes a central portion of a pixel electrode among the plurality of pixel electrodes; an auxiliary electrode located such that the auxiliary electrode corresponds to at least a portion of a top surface of the cover portion; and an intermediate layer (221, 222, 223) and a counter electrode (231, 232, 233), each located in the openings, wherein the pixel-defining layer has an under-cut structure in which the at least a portion of the top surface of the cover portion is recessed from the auxiliary electrode; wherein a portion of the intermediate layer extends along a side surface of an opening of the pixel-defining layer and a portion of the intermediate layer extends over the auxiliary electrode.