mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for finding a new biomarker that stains a desired cell component in a particular type of tissue, the method comprising: staining a tissue with both a test biomarker for which a staining behavior is not yet known and a known stain; acquiring a digital image of the stained tissue using a camera; selecting a color range for pixels stained with the test biomarker, identifying nuclei that are stained by the known stain, obtaining boundaries by growing an area out from each nucleus on a pixel-by-pixel basis until the growth from an adjacent nucleus is reached or until an edge of the tissue, detecting the cell membrane by expanding the thickness of the boundaries inwards towards each nucleus, detecting the cytoplasm as pixels inside of membrane region that are not nucleus pixels, generating an expression profile for the test biomarker for each type of tissue, wherein the expression profile includes a first proportion of pixels within the nucleus region whose colors fall within the selected color range, a second proportion of pixels within the membrane region whose colors fall within the selected color range, and a third proportion of pixels within the cytoplasm region whose colors fall within the selected color range, filling a database with expression profiles of test biomarkers on different types of tissue, and consulting the database to find a new biomarker that stains a desired cell component in a particular type of tissue. staining a tissue with both a test biomarker for which a staining behavior is not yet known and a known stain; acquiring a digital image of the stained tissue using a camera; selecting a color range for pixels stained with the test biomarker, identifying nuclei that are stained by the known stain, obtaining boundaries by growing an area out from each nucleus on a pixel-by-pixel basis until the growth from an adjacent nucleus is reached or until an edge of the tissue, detecting the cell membrane by expanding the thickness of the boundaries inwards towards each nucleus, detecting the cytoplasm as pixels inside of membrane region that are not nucleus pixels, generating an expression profile for the test biomarker for each type of tissue, wherein the expression profile includes a first proportion of pixels within the nucleus region whose colors fall within the selected color range, a second proportion of pixels within the membrane region whose colors fall within the selected color range, and a third proportion of pixels within the cytoplasm region whose colors fall within the selected color range, filling a database with expression profiles of test biomarkers on different types of tissue, and consulting the database to find a new biomarker that stains a desired cell component in a particular type of tissue.
A luminous panel system configured to illuminate an area or a user, said luminous panel system comprising: - a light emitting surface , - a controller configured to control said light emitting surface , - attachment means for attaching a further electronic device to said light emitting surface , and - power supply means for supplying power to said further electronic device when said further electronic device is attached to said light emitting surface via said attachment means ; characterized in that said power supply means is surrounded by a plurality of parts of said light emitting surface at opposite sides of said power supply means , wherein said controller is configured to control said light emitting surface based on one or more properties of said further electronic device when said further electronic device is attached to said light emitting surface , wherein said one or more properties of said further electronic device comprise a position and/or a dimensions and/or an orientation of said further electronic device , wherein said controller is configured to: - determine, based on said position and/or said dimensions and/or said orientation of said further electronic device , a plurality of pixels surrounding said further electronic device when said further electronic device is attached to said light emitting surface , and - control said surrounding pixels. - a light emitting surface , - a controller configured to control said light emitting surface , - attachment means for attaching a further electronic device to said light emitting surface , and - power supply means for supplying power to said further electronic device when said further electronic device is attached to said light emitting surface via said attachment means ; said power supply means is surrounded by a plurality of parts of said light emitting surface at opposite sides of said power supply means , wherein said controller is configured to control said light emitting surface based on one or more properties of said further electronic device when said further electronic device is attached to said light emitting surface , wherein said one or more properties of said further electronic device comprise a position and/or a dimensions and/or an orientation of said further electronic device , wherein said controller is configured to: - determine, based on said position and/or said dimensions and/or said orientation of said further electronic device , a plurality of pixels surrounding said further electronic device when said further electronic device is attached to said light emitting surface , and - control said surrounding pixels. - determine, based on said position and/or said dimensions and/or said orientation of said further electronic device , a plurality of pixels surrounding said further electronic device when said further electronic device is attached to said light emitting surface , and - control said surrounding pixels.
A method for puncture bundling of data for a first service in a transmission of a second service implemented in a transmitting node , the method comprising: determining that data for a first service will be transmitted during a time period when data for a second service will be transmitted, wherein the data for the first service requires lower latency than the data for the second service; determining transmission or reception conditions; determining , based on the determined transmission or reception conditions, to adjust the transmission of the first service; transmitting , during the time period, the data for the first service and the data for the second service, wherein the adjustment of the transmission of the first service involves including an original set of data for the first service and at least one repetition of the original set of data for the first service; characterized in receiving feedback from a receiving node regarding whether or not the receiving node successfully decoded the data for the first service, wherein the feedback is included in a single transmission and relates to both the original set of data and the at least one repetition. determining that data for a first service will be transmitted during a time period when data for a second service will be transmitted, wherein the data for the first service requires lower latency than the data for the second service; determining transmission or reception conditions; determining , based on the determined transmission or reception conditions, to adjust the transmission of the first service; transmitting , during the time period, the data for the first service and the data for the second service, wherein the adjustment of the transmission of the first service involves including an original set of data for the first service and at least one repetition of the original set of data for the first service; characterized in receiving feedback from a receiving node regarding whether or not the receiving node successfully decoded the data for the first service, wherein the feedback is included in a single transmission and relates to both the original set of data and the at least one repetition.
Robot gripper comprising a gripper base body having a connecting flange adapted to attach the robot gripper to a tool flange of a robot arm , further comprising a base link which is rotatably mounted on the gripper base body about a first rotational axis (D1) by means of a first rotational joint (15.1) which is automatically adjustable by a first drive motor (A1), and comprising a first gripper finger (16.1) which is rotatably mounted with respect to the base link about a second rotational axis (D2) which is aligned parallel to the first rotational axis (D1) by means of a second rotational joint (15.2) which is automatically adjustable by a second drive motor (A2) and comprising at least one further gripper finger (16.2, 16.3), wherein the second rotational joint (15.2) is configured to individually adjusting the first gripper finger (16.1) by the second drive motor (A2) independently of the at least one further gripper finger (16.2, 16.3), characterized in that the base link has a rotationally symmetrical outer lateral surface on which the base link is rotatably mounted entirely within the outer contour of the gripper base body , an intermediate link of the robot gripper has a rotationally symmetrical outer lateral surface on which the intermediate link is rotatably mounted entirely within the outer contour of the base link , and a finger carrier of the robot gripper has a rotationally symmetrical outer lateral surface on which the finger carrier is rotatably mounted completely within the outer contour of the intermediate link .
A seat (S) comprising a seat portion (SP) having an occupant supporting surface and a back portion (BP) having an occupant supporting surface and a head rest assembly , the head rest assembly having a head rest portion for supporting the head of an occupant and a side impact portion for protecting the head of the occupant from a side impact, the head rest assembly being secured or securable to the seat (S), and being movable towards and away from the seat portion (SP) of the seat (S), the side impact portion comprising a pair of peripheral elongate portions which are pivotable together about a common pivot axis (P) relative to the head rest portion between a first position wherein each peripheral elongate portion extends along the occupant supporting surface of the back portion (BP) of the seat (S) toward the seat portion (SP) and a second or stowed position.
An anti-vibration rubber composition, comprising: a rubber component containing at least a natural rubber and a high-cis isoprene rubber having a content of cis-1,4 bond of 95% by mass or more; a carbon black having an iodine adsorption number of 20 mg/g or less and a DBP adsorption number of 55 ml/100 g or less; a silica having a nitrogen adsorption specific surface area (the BET method) of 80 m 2 /g or more and less than 240 m 2 /g; and a compound represented by the following general formula : wherein m and n each independently represent an integer of 1 or more. a rubber component containing at least a natural rubber and a high-cis isoprene rubber having a content of cis-1,4 bond of 95% by mass or more; a carbon black having an iodine adsorption number of 20 mg/g or less and a DBP adsorption number of 55 ml/100 g or less; a silica having a nitrogen adsorption specific surface area (the BET method) of 80 m 2 /g or more and less than 240 m 2 /g; and a compound represented by the following general formula :
An on-chip supercapacitor having an electrode comprising one-dimensional silicon (Si) nanostructures coated with a first layer of titanium nitride (TiN), characterized in that it further comprises a second layer of manganese dioxide (MnO 2 ) deposited on the first layer.
A Sb-Te-based alloy sintered sputtering target having a Sb content of 10 to 60 at%, a Te content of 20 to 60 at%, optionally further containing: one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si in an amount of 30 at% or less; and/or one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si as oxides; and/or oxides of one or more types of elements selected from Mg, Al, Si, Ti, Cu, Y, Zr, Nb, Hf, Ta, Ce and Cd in an amount of 0.1 to 5 mol%, the remainder being one or more types of elements selected from Ag, In and Ge and unavoidable impurities, wherein an average grain size of oxides is 0.5 μm or less and an average content of oxygen in the target is 1500 to 2500 wtppm. one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si in an amount of 30 at% or less; and/or one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si as oxides; and/or oxides of one or more types of elements selected from Mg, Al, Si, Ti, Cu, Y, Zr, Nb, Hf, Ta, Ce and Cd in an amount of 0.1 to 5 mol%,
A catalyst for oxidizing ammonia, the catalyst comprising: a washcoat including copper or iron on a small pore molecular sieve material having a maximum ring size of eight tetrahedral atoms physically mixed with platinum and rhodium on a refractory metal oxide support including alumina, silica, zirconia, titania, and physical mixtures or chemical combinations thereof, including atomically doped combinations.
A method of forming a lightning protection system for use with an aircraft , the method using an apparatus comprising an end effector and a printing device coupled to said end effector, said printing device configured to discharge a flow of metal paste or slurry material towards a component to form at least one layer of electrically conductive material thereon, said method comprising: selecting a configuration of at least one layer of electrically conductive material to be applied to a component of the aircraft, wherein the configuration is selected as a function of an amount of lightning protection to be provided thereto; and applying, by said printing device, the at least one layer of electrically conductive material to the component via an additive manufacturing technique; wherein applying, by said printing device, the at least one layer comprises forming, by said printing device, a plurality of perforations in the at least one layer of electrically conductive material, the plurality of perforations having a substantially rounded outer profile, wherein selecting a configuration comprises: defining a first configuration of the at least one layer of electrically conductive material to be applied to components in critical zones of the aircraft ; and defining a second configuration of the at least one layer of electrically conductive material to be applied to components in zones of the aircraft other than the critical zones, wherein the first configuration provides a greater amount of lightning protection than the second configuration. selecting a configuration of at least one layer of electrically conductive material to be applied to a component of the aircraft, wherein the configuration is selected as a function of an amount of lightning protection to be provided thereto; and applying, by said printing device, the at least one layer of electrically conductive material to the component via an additive manufacturing technique; wherein applying, by said printing device, the at least one layer comprises forming, by said printing device, a plurality of perforations in the at least one layer of electrically conductive material, the plurality of perforations having a substantially rounded outer profile, wherein selecting a configuration comprises: defining a first configuration of the at least one layer of electrically conductive material to be applied to components in critical zones of the aircraft ; and defining a second configuration of the at least one layer of electrically conductive material to be applied to components in zones of the aircraft other than the critical zones, wherein the first configuration provides a greater amount of lightning protection than the second configuration. defining a first configuration of the at least one layer of electrically conductive material to be applied to components in critical zones of the aircraft ; and defining a second configuration of the at least one layer of electrically conductive material to be applied to components in zones of the aircraft other than the critical zones, wherein the first configuration provides a greater amount of lightning protection than the second configuration.
A downlink channel decoding method, comprising: receiving, by a user equipment, dynamic signaling, wherein the dynamic signaling notifies the user equipment of a demodulation reference signal, DMRS, pattern corresponding to current downlink data transmission, the DMRS pattern being one of multiple DMRS patterns semi-statically configured by a base station or predefined in the user equipment; determining, by the user equipment based on the DMRS pattern notified by the dynamic signaling, a resource unit occupied by a DMRS; and decoding, by the user equipment, a downlink channel based on the DMRS transmitted on the resource unit; the determining, by the user equipment based on the DMRS pattern notified by the dynamic signaling, the resource unit occupied by the DMRS comprises: determining, by the user equipment based on the DMRS pattern notified by a specified information field in downlink allocation, the resource unit occupied by the DMRS, said method characterised in that the specified information field is a hybrid automatic repeat request acknowledgement resource offset field. receiving, by a user equipment, dynamic signaling, wherein the dynamic signaling notifies the user equipment of a demodulation reference signal, DMRS, pattern corresponding to current downlink data transmission, the DMRS pattern being one of multiple DMRS patterns semi-statically configured by a base station or predefined in the user equipment; determining, by the user equipment based on the DMRS pattern notified by the dynamic signaling, a resource unit occupied by a DMRS; and decoding, by the user equipment, a downlink channel based on the DMRS transmitted on the resource unit; the determining, by the user equipment based on the DMRS pattern notified by the dynamic signaling, the resource unit occupied by the DMRS comprises: determining, by the user equipment based on the DMRS pattern notified by a specified information field in downlink allocation, the resource unit occupied by the DMRS, said method characterised in that the specified information field is a hybrid automatic repeat request acknowledgement resource offset field.
Method for cleaning a polymer melt, in which volatile foreign substances and solid foreign substances are removed from the polymer melt, wherein the polymer melt is pressed through a filter element into a vacuum of a vacuum chamber, wherein the solid foreign substances are taken up by the filter element and wherein the volatile foreign substances are collected in the vacuum chamber, and wherein the polymer melt is guided within the vacuum chamber on an outlet face of the filter element, characterized in that the filter element is formed at least from a hollow-cylindrical filter candle projecting into the vacuum chamber.
An evaporating mask plate, comprising a mask pattern plate ; the mask pattern plate comprises an evaporating area and a test area located around the evaporating area; the test area is provided with at least two test element groups located in different regions of the test area, and each test element group comprises at least one test hole for alignment, characterized in that the mask pattern plate further comprises a grasping area , a partially-etched area and a fully-etched area , wherein the partially-etched area does not go through the mask pattern plate; the fully-etched area goes through the mask pattern plate; with respect to the partially-etched area, the fully-etched area is close to a central region of the mask pattern plate. the mask pattern plate comprises an evaporating area and a test area located around the evaporating area; the test area is provided with at least two test element groups located in different regions of the test area, and each test element group comprises at least one test hole for alignment, characterized in that the mask pattern plate further comprises a grasping area , a partially-etched area and a fully-etched area , wherein the partially-etched area does not go through the mask pattern plate; the fully-etched area goes through the mask pattern plate; with respect to the partially-etched area, the fully-etched area is close to a central region of the mask pattern plate.
A light emitting device comprising a hole transporting layer, an emissive layer, and a blocking layer arranged to confine holes, electrons, and/or excitons; said hole transporting layer comprises a material having a first HOMO energy, wherein said hole transporting layer comprises at least one metal complex; said emissive layer comprising at least one material capable of transporting electrons, said material having a second HOMO energy; said blocking layer comprising a material having a HOMO energy that is between said first and second HOMO energies; wherein said blocking layer is an electron blocking layer comprising a metal complex; and wherein said blocking layer resides between said hole transporting layer and said emissive layer. said hole transporting layer comprises a material having a first HOMO energy, wherein said hole transporting layer comprises at least one metal complex; said emissive layer comprising at least one material capable of transporting electrons, said material having a second HOMO energy; said blocking layer comprising a material having a HOMO energy that is between said first and second HOMO energies; wherein said blocking layer is an electron blocking layer comprising a metal complex; and wherein said blocking layer resides between said hole transporting layer and said emissive layer.
A surgical stapler comprising: an elongated body defining a longitudinal axis; a tool assembly supported on the elongated body, the tool assembly being articulable about an axis transverse to the longitudinal axis; a drive assembly movable from a retracted position towards an advanced position to actuate the tool assembly; an articulation locking mechanism supported on the distal end of the elongated body, the articulation locking mechanism including a locking member that is movable from an unlocked position disengaged from the tool assembly to a locked position engaged with the tool assembly in response to movement of the drive assembly from the retracted position towards the advanced position to prevent further articulation of the tool assembly; and a mounting assembly supported on the proximal end of the tool assembly, wherein the mounting assembly defines notches , characterised in that the locking member defines teeth , the teeth being received within the notches in the locked position. an elongated body defining a longitudinal axis; a tool assembly supported on the elongated body, the tool assembly being articulable about an axis transverse to the longitudinal axis; a drive assembly movable from a retracted position towards an advanced position to actuate the tool assembly; an articulation locking mechanism supported on the distal end of the elongated body, the articulation locking mechanism including a locking member that is movable from an unlocked position disengaged from the tool assembly to a locked position engaged with the tool assembly in response to movement of the drive assembly from the retracted position towards the advanced position to prevent further articulation of the tool assembly; and a mounting assembly supported on the proximal end of the tool assembly, wherein the mounting assembly defines notches , characterised in that the locking member defines teeth , the teeth being received within the notches in the locked position.