mhurhangee/ep-ind-claims huggingface dataset:
An array substrate (100, 100'), comprising: a base substrate (10, 10') having a first surface and a second surface opposite to the first surface; and a stacked structure (200, 200') disposed on the first surface of the base substrate, the stacked structure comprising: a contact pad (101, 101') disposed on the first surface of the base substrate, wherein the base substrate defines a first via hole (102, 102') at a position corresponding to the contact pad, the first via hole penetrating the first surface and the second surface of the base substrate; a common-electrode layer (20, 20') connected with the contact pad; and a gate line (121, 121') isolated from the common-electrode layer and the contact pad; and the array substrate further comprising: a common-electrode line (201, 201') disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure (40, 40') connected with the contact pad, and connected to the common-electrode line through the first via hole. a base substrate (10, 10') having a first surface and a second surface opposite to the first surface; and a stacked structure (200, 200') disposed on the first surface of the base substrate, the stacked structure comprising: a contact pad (101, 101') disposed on the first surface of the base substrate, wherein the base substrate defines a first via hole (102, 102') at a position corresponding to the contact pad, the first via hole penetrating the first surface and the second surface of the base substrate; a common-electrode layer (20, 20') connected with the contact pad; and a gate line (121, 121') isolated from the common-electrode layer and the contact pad; and a common-electrode layer (20, 20') connected with the contact pad; and a gate line (121, 121') isolated from the common-electrode layer and the contact pad; and the array substrate further comprising: a common-electrode line (201, 201') disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure (40, 40') connected with the contact pad, and connected to the common-electrode line through the first via hole. a common-electrode line (201, 201') disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure (40, 40') connected with the contact pad, and connected to the common-electrode line through the first via hole.
A plasma processing system comprising: a high-frequency generator configured to deliver power to a plasma chamber; a low-frequency generator configured to deliver power to the plasma chamber; and a water cooled filter coupled between the plasma chamber and the high-frequency generator, the water cooled filter configured to suppress power outside of a bandwidth around a frequency of the high-frequency generator, the water cooled filte comprising two or more helical resonators connected in parallel, each of the helical resonators comprising a hollow helical coil for passing water through the helical resonators for cooling; wherein the suppression of power at the frequency of the high-frequency generator is at most 2 dB, and wherein the suppression of power at frequencies more than the frequency of the low-frequency generator from the frequency of the high-frequency generator is at least 2 dB higher than the suppression of power at the frequency of the high-frequency generator. a high-frequency generator configured to deliver power to a plasma chamber; a low-frequency generator configured to deliver power to the plasma chamber; and a water cooled filter coupled between the plasma chamber and the high-frequency generator, the water cooled filter configured to suppress power outside of a bandwidth around a frequency of the high-frequency generator, the water cooled filte comprising two or more helical resonators connected in parallel, each of the helical resonators comprising a hollow helical coil for passing water through the helical resonators for cooling; wherein the suppression of power at the frequency of the high-frequency generator is at most 2 dB, and wherein the suppression of power at frequencies more than the frequency of the low-frequency generator from the frequency of the high-frequency generator is at least 2 dB higher than the suppression of power at the frequency of the high-frequency generator.
A method for sequencing a template polynucleotide comprising: (a) contacting the template polynucleotide with a plurality of oligonucleotide pairs, wherein each member of each oligonucleotide pair comprises (i) an adaptor sequence, (ii) a unique barcode sequence that hybridizes to its complement on the other member of the oligonucleotide pair, and wherein one or both of the oligonucleotide pairs comprises (iii) a primer sequence that hybridizes to the template polynucleotide; (b) contacting the template polynucleotide and plurality of oligonucleotide pairs with a polymerase lacking strand displacement activity and reagents necessary for polymerization, and (c) allowing extension of a polynucleotide strand from the 3' end of the primer sequence to produce an extended polynucleotide comprising components (i)-(iii) and a sequence complementary to the template polynucleotide; (d) collecting the extended polynucleotides; (e) sequencing the extended polynucleotides; and (f) assembling the sequences of the extended polynucleotides based on the unique barcodes, thereby sequencing the template polynucleotide, wherein the method does not include fragmenting the template polynucleotide, damaging the template polynucleotide, or removing epigenetic markers on the template polynucleotide. (a) contacting the template polynucleotide with a plurality of oligonucleotide pairs, wherein each member of each oligonucleotide pair comprises (i) an adaptor sequence, (ii) a unique barcode sequence that hybridizes to its complement on the other member of the oligonucleotide pair, and wherein one or both of the oligonucleotide pairs comprises (iii) a primer sequence that hybridizes to the template polynucleotide; (b) contacting the template polynucleotide and plurality of oligonucleotide pairs with a polymerase lacking strand displacement activity and reagents necessary for polymerization, and (c) allowing extension of a polynucleotide strand from the 3' end of the primer sequence to produce an extended polynucleotide comprising components (i)-(iii) and a sequence complementary to the template polynucleotide; (d) collecting the extended polynucleotides; (e) sequencing the extended polynucleotides; and (f) assembling the sequences of the extended polynucleotides based on the unique barcodes, thereby sequencing the template polynucleotide,
A barrier component for an animal stall, comprising: a curved, elongated body member of elastomeric material, the body having first and second end sections (40, 42); characterized in that the first end (40, 42) and the second end (40, 42) sections each being adapted for engagement within a hollow pipe; and that a collar formation adjacent the first end or the second end defines an annular recess for receiving a hollow pipe end. a curved, elongated body member of elastomeric material, the body having first and second end sections (40, 42); characterized in that the first end (40, 42) and the second end (40, 42) sections each being adapted for engagement within a hollow pipe; and that a collar formation adjacent the first end or the second end defines an annular recess for receiving a hollow pipe end.
A system for debriding a tissue site, comprising: a manifold adapted to deliver negative pressure to the tissue site; a cover adapted to form a sealed space over the manifold and the tissue site for receiving a negative pressure from a negative-pressure source; characterized by a debridement tool formed from a felted foam or a compressed foam and adapted to be positioned between the manifold and the tissue site and having a tissue-facing surface (111, 211, 311, 411) and an opposite surface including a plurality of holes (140, 240, 340, 440) extending therebetween wherein the holes (140, 240, 340, 440) are separated from each other by walls (148, 248, 348, 448), the walls (148, 248, 348, 448) having transverse surfaces extending between the tissue-facing surface (111, 211, 311, 411) and the opposite surface that form cutting edges with the tissue-facing surface (111, 211, 311, 411), and wherein the holes (140, 240, 340, 440) have a perforation shape factor that allows the holes (140, 240, 340, 440) to collapse from a relaxed position to a contracted position in response to an application and removal of negative pressure from the sealed space; and wherein the tissue-facing surface of the debridement tool is adapted to debride the tissue site in response to movement of the debridement tool between the relaxed position and the contracted position. a manifold adapted to deliver negative pressure to the tissue site; a cover adapted to form a sealed space over the manifold and the tissue site for receiving a negative pressure from a negative-pressure source; characterized by a debridement tool formed from a felted foam or a compressed foam and adapted to be positioned between the manifold and the tissue site and having a tissue-facing surface (111, 211, 311, 411) and an opposite surface including a plurality of holes (140, 240, 340, 440) extending therebetween wherein the holes (140, 240, 340, 440) are separated from each other by walls (148, 248, 348, 448), the walls (148, 248, 348, 448) having transverse surfaces extending between the tissue-facing surface (111, 211, 311, 411) and the opposite surface that form cutting edges with the tissue-facing surface (111, 211, 311, 411), and wherein the holes (140, 240, 340, 440) have a perforation shape factor that allows the holes (140, 240, 340, 440) to collapse from a relaxed position to a contracted position in response to an application and removal of negative pressure from the sealed space; and wherein the tissue-facing surface of the debridement tool is adapted to debride the tissue site in response to movement of the debridement tool between the relaxed position and the contracted position.
A compression ignition combustion method for an internal combustion engine, the method including the steps of: a. supplying an initial fuel charge into a combustion chamber of an internal combustion engine during an engine cycle, b. subsequently supplying a subsequent fuel charge into the combustion chamber at 40 or more degrees prior to Top Dead Center during the engine cycle, the subsequent fuel charge having different reactivity than the first fuel charge, thereby obtaining a stratified distribution of fuel reactivity within the combustion chamber, with regions of highest fuel reactivity being spaced from regions of lowest fuel reactivity at the start of combustion, wherein: one of the initial fuel charge and the subsequent fuel charge contains a first fuel; and the other of the initial fuel charge and the subsequent fuel charge contains a mixture of the first fuel and an additive which alters the reactivity of the first fuel. a. supplying an initial fuel charge into a combustion chamber of an internal combustion engine during an engine cycle, b. subsequently supplying a subsequent fuel charge into the combustion chamber at 40 or more degrees prior to Top Dead Center during the engine cycle, the subsequent fuel charge having different reactivity than the first fuel charge, one of the initial fuel charge and the subsequent fuel charge contains a first fuel; and the other of the initial fuel charge and the subsequent fuel charge contains a mixture of the first fuel and an additive which alters the reactivity of the first fuel.
Method for the batch-wise production of direct reduced metal material, comprising the steps: a) charging metal material to be reduced into a furnace space; b) evacuating an existing atmosphere from the furnace space so as to achieve a gas pressure of less than 1 bar inside the furnace space; c) providing heat and hydrogen gas into the furnace space, so that heated hydrogen gas heats the charged metal material to a temperature high enough so that metal oxides present in the metal material are reduced, in turn causing water vapour to be formed, which provision of hydrogen gas is performed so that a pressure of more than 1 bar builds up inside the furnace space and without recirculation of the hydrogen gas during reduction of the metal material whereby the hydrogen gas is supplied into the furnace but not removed therefrom during the reduction; wherein the hydrogen gas is supplied into a top part of the furnace space, and d) before an evacuation of gases from the furnace space back to atmospheric pressure, condensing and collecting the water vapour formed in step c in a condenser below the charged metal material; and e) before an evacuation of gases from the furnace space back to atmospheric pressure, providing a carbon-containing gas into the top part of the furnace space, so that the heated and reduced metal material is carburized by said carbon-containing gas. a) charging metal material to be reduced into a furnace space; b) evacuating an existing atmosphere from the furnace space so as to achieve a gas pressure of less than 1 bar inside the furnace space; c) providing heat and hydrogen gas into the furnace space, so that heated hydrogen gas heats the charged metal material to a temperature high enough so that metal oxides present in the metal material are reduced, in turn causing water vapour to be formed, which provision of hydrogen gas is performed so that a pressure of more than 1 bar builds up inside the furnace space and without recirculation of the hydrogen gas during reduction of the metal material whereby the hydrogen gas is supplied into the furnace but not removed therefrom during the reduction; wherein the hydrogen gas is supplied into a top part of the furnace space, and d) before an evacuation of gases from the furnace space back to atmospheric pressure, condensing and collecting the water vapour formed in step c in a condenser below the charged metal material; and e) before an evacuation of gases from the furnace space back to atmospheric pressure, providing a carbon-containing gas into the top part of the furnace space, so that the heated and reduced metal material is carburized by said carbon-containing gas.
Fuel injection valve for internal combustion engines, having a housing in which a longitudinally displaceable nozzle needle interacts with a nozzle seat in order to open and close at least one injection opening, wherein the nozzle needle, by means of its face surface averted from the nozzle seat, delimits a control chamber which is formed in the housing and which can be filled with highly pressurized fuel, wherein the control chamber is connectable by means of a control valve to a low-pressure chamber, characterized in that a pressure pin is provided whose face side delimits the control chamber and whose face surface averted from the control chamber interacts with a force sensor.
A system information transmission method, wherein the method comprises: broadcasting, by a network device (102, 1000), a minimum system information, MSI, message, wherein the MSI message comprises identification information of at least one system information block, SIB, characterized in that the identification information of each SIB comprises an identifier of the SIB and a type indication of the SIB, the type indication of the SIB indicating that a type of the SIB is area specific system information or cell specific system information.
An assembly structure of a windshield wiper, the assembly structure comprising: a base, comprising a seat and a slot, the seat comprising an accommodating space, a plurality of limiting grooves communicating with the accommodating space, and a fastening portion and an elastic pressing piece located on one side of the accommodating space, wherein the slot is arranged on a bottom side of the seat, and a wiper blade is inserted in the slot; and a linking set, comprising a seat plate, the seat plate comprising a plurality of guiding blocks, a latch and an elastic arm; wherein, the latch of the linking set is obliquely inserted into the seat and configured to rotate to make the seat plate be accommodated in the accommodating space; when the linking set is pushed, the elastic arm moves toward the fastening portion to be engaged with the fastening portion and abut against the elastic pressing piece, and the plurality of guiding blocks slide into the limiting grooves correspondingly, wherein the seat comprises a plurality of guiding grooves arranged spacedly in the accommodation space corresponding to the guiding blocks, and the guiding grooves communicate with the limiting grooves respectively; characterised in that one side of each of the guiding grooves communicates with each of the limiting grooves, and an L-shaped groove is defined on an inner wall of the seat. a base, comprising a seat and a slot, the seat comprising an accommodating space, a plurality of limiting grooves communicating with the accommodating space, and a fastening portion and an elastic pressing piece located on one side of the accommodating space, wherein the slot is arranged on a bottom side of the seat, and a wiper blade is inserted in the slot; and a linking set, comprising a seat plate, the seat plate comprising a plurality of guiding blocks, a latch and an elastic arm; wherein, the latch of the linking set is obliquely inserted into the seat and configured to rotate to make the seat plate be accommodated in the accommodating space; when the linking set is pushed, the elastic arm moves toward the fastening portion to be engaged with the fastening portion and abut against the elastic pressing piece, and the plurality of guiding blocks slide into the limiting grooves correspondingly, wherein the seat comprises a plurality of guiding grooves arranged spacedly in the accommodation space corresponding to the guiding blocks, and the guiding grooves communicate with the limiting grooves respectively; characterised in that one side of each of the guiding grooves communicates with each of the limiting grooves, and an L-shaped groove is defined on an inner wall of the seat.
A diffuser for diffusing a fragrant air into surrounding ambient air, comprising: a base, which is configured to support the diffuser when this rests on a plane surface P, said base comprising at least one opening, the at least one opening formed about a periphery of the base and extending between a lower surface and an upper surface of the base; a fan mounted to the base over said upper surface thereof; a receptacle provided over the fan and mounted to the base over the upper surface thereof, the receptacle comprising a bottom wall and a vertically extending sidewall to retain a fragrant medium therein, the bottom wall comprising a plurality of openings formed therethrough; a sleeve mounted on the upper surface of the base and enclosing the fan and the receptacle; and a lid mounted over the sleeve, the lid comprising at least one opening, the at least one opening formed about a periphery of the lid and extending between a lower surface and an upper surface of the lid; wherein the fan is configured to force airflow from an exterior of the diffuser, into the base through the at least one opening of the base, through the plurality of openings formed in the bottom wall of the receptacle, through the receptacle and about any fragrant medium therein, into a volume of space above the receptacle and enclosed by the lid, and out through the at least one opening in the lid to the ambient air external to the diffuser; and wherein the wordings: (i) lower, (ii) upper, (iii) over, (iv) bottom, and (v) vertically refer to a position in which said base supports said diffuser when this rests on a plane surface P. a base, which is configured to support the diffuser when this rests on a plane surface P, said base comprising at least one opening, the at least one opening formed about a periphery of the base and extending between a lower surface and an upper surface of the base; a fan mounted to the base over said upper surface thereof; a receptacle provided over the fan and mounted to the base over the upper surface thereof, the receptacle comprising a bottom wall and a vertically extending sidewall to retain a fragrant medium therein, the bottom wall comprising a plurality of openings formed therethrough; a sleeve mounted on the upper surface of the base and enclosing the fan and the receptacle; and a lid mounted over the sleeve, the lid comprising at least one opening, the at least one opening formed about a periphery of the lid and extending between a lower surface and an upper surface of the lid; wherein the fan is configured to force airflow from an exterior of the diffuser, into the base through the at least one opening of the base, through the plurality of openings formed in the bottom wall of the receptacle, through the receptacle and about any fragrant medium therein, into a volume of space above the receptacle and enclosed by the lid, and out through the at least one opening in the lid to the ambient air external to the diffuser; and wherein the wordings: (i) lower, (ii) upper, (iii) over, (iv) bottom, and (v) vertically refer to a position in which said base supports said diffuser when this rests on a plane surface P.
An electronic device comprising: a memory (116, 117) configured to store a plurality of digital images; and a processor, wherein the processor tracks movement of an object recognized in the plurality of digital images, and the processor detects an amount of movement between the plurality of digital images, wherein when the amount of the movement is greater than a threshold, the processor tracks the object on an input image using a descriptor matching method, wherein when the amount of the movement is not greater than the threshold, the processor tracks the object on the input image using a patch matching method, determines if the tracking of the object succeeds, and when the tracking the object using the patch matching method fails, the processor tracks the object on the input image data using the descriptor matching method, and wherein the descriptor matching method, using one of a Scale Invariant Feature Transform, SIFT, algorithm, a Speed Up Robust Features, SURF, algorithm, or a Binary Robust Independent Elementary Features, BRIEF, algorithm, extracts features of an area around an interest point and uses the extracted features to perform matching, and the patch matching method performs matching by using a local area around the interest point without processing the local area before performing matching. a memory (116, 117) configured to store a plurality of digital images; and a processor,
Composition for caring for and/or making up keratin materials, in particular the skin, comprising, preferably in a physiologically acceptable medium: a) at least one silicone elastomer containing carboxylic acid functions; and b) at least one copolymer based on silicone resin and on silicone of dimethiconol type. a) at least one silicone elastomer containing carboxylic acid functions; and b) at least one copolymer based on silicone resin and on silicone of dimethiconol type.