mhurhangee/ep-ind-claims huggingface dataset:
A structure of partial tunnel oxide passivated contact for a photovoltaic cell, comprising: a cell body; a first tunnel oxide layer on a surface of the cell body; and a first polysilicon film on a surface of the first tunnel oxide layer: wherein the surface of the cell body has a region for passivated contact and a region for light absorption, the first tunnel oxide layer is disposed in the region for passivated contact, and a projection of the first polysilicon film on the surface of the cell body is located in the region for passivated contact; characterized in that the structure further comprises: a second tunnel oxide layer on the surface of the cell body and a second polysilicon film on a surface of the second tunnel oxide layer, which are disposed between the first tunnel oxide layer and the cell body, wherein: both a projection of the second tunnel oxide layer and a projection of the second polysilicon film on the cell body cover entirely the region for passivated contact and the region for light absorption. a cell body; a first tunnel oxide layer on a surface of the cell body; and a first polysilicon film on a surface of the first tunnel oxide layer: wherein the surface of the cell body has a region for passivated contact and a region for light absorption, the first tunnel oxide layer is disposed in the region for passivated contact, and a projection of the first polysilicon film on the surface of the cell body is located in the region for passivated contact; characterized in that the structure further comprises: a second tunnel oxide layer on the surface of the cell body and a second polysilicon film on a surface of the second tunnel oxide layer, which are disposed between the first tunnel oxide layer and the cell body, wherein: both a projection of the second tunnel oxide layer and a projection of the second polysilicon film on the cell body cover entirely the region for passivated contact and the region for light absorption. wherein the surface of the cell body has a region for passivated contact and a region for light absorption, the first tunnel oxide layer is disposed in the region for passivated contact, and a projection of the first polysilicon film on the surface of the cell body is located in the region for passivated contact; characterized in that the structure further comprises: a second tunnel oxide layer on the surface of the cell body and a second polysilicon film on a surface of the second tunnel oxide layer, which are disposed between the first tunnel oxide layer and the cell body, wherein: both a projection of the second tunnel oxide layer and a projection of the second polysilicon film on the cell body cover entirely the region for passivated contact and the region for light absorption.
Method for reinforcing a hollow-chamber profile (1, 1') by way of a reinforcement profile (10, 10', 10''), wherein the hollow-chamber profile (1, 1') - is at least largely composed of plastics; - has external profile walls (2, 2') and internal webs (4-7, 4'-7') for forming the hollow chambers (15, 16, 17); - has a reinforcement chamber (3, 3') which in part-regions is formed by the external profile wall and in other part-regions is formed by the internal webs (6, 7) of the hollow-chamber profile (1, 1'), and wherein the reinforcement profile (10, 10', 10'') - has a plurality of legs (12, 13, 14, 22, 22'); - is inserted into the reinforcement chamber (3, 3'); and - by means of a screw connection (18, 18') or similar which penetrates the external profile wall of the hollow-chamber profile (1, 1') is fastened to the latter; wherein - the reinforcement profile (10, 10', 10") is shaped such and is inserted into the reinforcement chamber (3, 3') such that one of the legs of the reinforcement profile in the region of the later screw connection (18, 18') or similar is initially spaced apart from the external profile wall, and in at least one other region touches the external profile wall, - the reinforcement profile (10, 10', 10") during tightening of the screw connection (18, 18') or similar penetrating the external profile wall of the hollow-chamber profile (1, 1') is subjected to a pivoting or rotating movement, respectively, and hereby in at least one region of the reinforcement profile (10, 10', 10'') which is spaced apart from the screw connection or similar is pressed against the internal wall of the reinforcement chamber (3, 3'). - is at least largely composed of plastics; - has external profile walls (2, 2') and internal webs (4-7, 4'-7') for forming the hollow chambers (15, 16, 17); - has a reinforcement chamber (3, 3') which in part-regions is formed by the external profile wall and in other part-regions is formed by the internal webs (6, 7) of the hollow-chamber profile (1, 1'), - has a plurality of legs (12, 13, 14, 22, 22'); - is inserted into the reinforcement chamber (3, 3'); and - by means of a screw connection (18, 18') or similar which penetrates the external profile wall of the hollow-chamber profile (1, 1') is fastened to the latter; - the reinforcement profile (10, 10', 10") is shaped such and is inserted into the reinforcement chamber (3, 3') such that one of the legs of the reinforcement profile in the region of the later screw connection (18, 18') or similar is initially spaced apart from the external profile wall, and in at least one other region touches the external profile wall, - the reinforcement profile (10, 10', 10") during tightening of the screw connection (18, 18') or similar penetrating the external profile wall of the hollow-chamber profile (1, 1') is subjected to a pivoting or rotating movement, respectively, and hereby in at least one region of the reinforcement profile (10, 10', 10'') which is spaced apart from the screw connection or similar is pressed against the internal wall of the reinforcement chamber (3, 3').
A method of fabricating an optical device comprising one or more material layers comprising at least one optically switchable material sandwiched between a first and a second conducting layer, the method comprising: (i) receiving a substrate comprising the first conducting layer over its work surface; (ii) removing the first conducting layer from a first area at the periphery of the substrate, the first area having a first width along the perimeter of the substrate and extending between 10% and 90% of the perimeter of the substrate; (iii) depositing said one or more material layers of the optical device and the second conducting layer such that they cover the first conducting layer and extend beyond the first conducting layer about the perimeter of the first conducting layer into the first area at the periphery of the substrate; (iv) removing material down to the substrate or to a diffusion barrier, if present, from a second area at the periphery of the substrate, the second area within the first area, the removal along a second width, narrower than the first width, and along substantially the entire perimeter of the substrate; (v) fabricating an exposed portion of the first conducting layer by removing the second conducting layer and the one or more material layers of the optical device thereunder, thereby revealing the exposed portion of the first conducting layer; and (vi) applying a first bus bar to the second conducting layer on a portion that does not cover the first conducting layer and applying a second bus bar to the exposed portion of the first conducting layer, wherein at least one of the first and second conducting layers is transparent. (i) receiving a substrate comprising the first conducting layer over its work surface; (ii) removing the first conducting layer from a first area at the periphery of the substrate, the first area having a first width along the perimeter of the substrate and extending between 10% and 90% of the perimeter of the substrate; (iii) depositing said one or more material layers of the optical device and the second conducting layer such that they cover the first conducting layer and extend beyond the first conducting layer about the perimeter of the first conducting layer into the first area at the periphery of the substrate; (iv) removing material down to the substrate or to a diffusion barrier, if present, from a second area at the periphery of the substrate, the second area within the first area, the removal along a second width, narrower than the first width, and along substantially the entire perimeter of the substrate; (v) fabricating an exposed portion of the first conducting layer by removing the second conducting layer and the one or more material layers of the optical device thereunder, thereby revealing the exposed portion of the first conducting layer; and (vi) applying a first bus bar to the second conducting layer on a portion that does not cover the first conducting layer and applying a second bus bar to the exposed portion of the first conducting layer,
A method for driving an end effector coupled to an ultrasonic drive system of a surgical instrument, the method comprising: generating a first ultrasonic drive signal by a generator coupled to an ultrasonic drive system, wherein the ultrasonic drive system comprises an ultrasonic transducer coupled to a waveguide and an end effector coupled to the waveguide, wherein the end effector comprises a clamp member in combination with a blade, and wherein the ultrasonic drive system is configured to resonate at a resonant frequency; actuating the ultrasonic transducer with the first ultrasonic drive signal for a first period; generating a second ultrasonic drive signal by the generator; and actuating the ultrasonic transducer with the second ultrasonic drive signal for a second period, subsequent to the first period; generating a third ultrasonic drive signal by the generator; and actuating the ultrasonic transducer with the third ultrasonic drive signal for a third period; wherein the first drive signal is different from the second drive signal over the respective first and second periods, and wherein the third drive signal is different from the first and second drive signals over the first, second, and third periods; and wherein the first, second, and third drive signals define a step function waveform over the first, second, and third periods. generating a first ultrasonic drive signal by a generator coupled to an ultrasonic drive system, wherein the ultrasonic drive system comprises an ultrasonic transducer coupled to a waveguide and an end effector coupled to the waveguide, wherein the end effector comprises a clamp member in combination with a blade, and wherein the ultrasonic drive system is configured to resonate at a resonant frequency; actuating the ultrasonic transducer with the first ultrasonic drive signal for a first period; generating a second ultrasonic drive signal by the generator; and actuating the ultrasonic transducer with the second ultrasonic drive signal for a second period, subsequent to the first period; generating a third ultrasonic drive signal by the generator; and actuating the ultrasonic transducer with the third ultrasonic drive signal for a third period; wherein the first drive signal is different from the second drive signal over the respective first and second periods, and wherein the third drive signal is different from the first and second drive signals over the first, second, and third periods; and wherein the first, second, and third drive signals define a step function waveform over the first, second, and third periods.
A packaged composition comprising a plurality of particles, wherein at least one of said particles comprises: a carrier; and a shading dye; wherein at least 80% of said particles have a density less than 1.25 g/cm 3; wherein at least 80% of said particles have a mass between 0.1 mg to 5 g; wherein each of said particles has a maximum dimension of less than 10 mm; wherein said particles comprise from about 20% to about 99.9% by weight of said particles of said carrier and wherein said carrier is polyethylene glycol having a weight average molecular weight from about 2000 to about 13000; and wherein the shading dye has the following structure: Dye- a -NR 1 R 2, wherein the - a-NR 1 R 2 group is attached to an aromatic ring of the dye, G is independently -SO 2 - or -C -, the index a is an integer with a value of 0 or 1, and R 1 and R 2 are independently selected from the group consisting of H, a polyoxyalkylene chain, C 1-8 alkyl, C 6-10 aryl, C 7-16 alkaryl, polyoxyalkylene chain substituted C 1-8 alkyl, polyoxyalkylene chain substituted C 6-10 aryl, polyoxyalkylene chain substituted C 7-16 alkaryl and mixtures thereof; said polyoxyalkylene chains independently having from about 2 to about 100 repeating units. a carrier; and a shading dye; wherein at least 80% of said particles have a density less than 1.25 g/cm 3; wherein at least 80% of said particles have a mass between 0.1 mg to 5 g; wherein each of said particles has a maximum dimension of less than 10 mm; wherein said particles comprise from about 20% to about 99.9% by weight of said particles of said carrier and wherein said carrier is polyethylene glycol having a weight average molecular weight from about 2000 to about 13000; and wherein the shading dye has the following structure: Dye- a -NR 1 R 2, wherein the - a-NR 1 R 2 group is attached to an aromatic ring of the dye, G is independently -SO 2 - or -C -, the index a is an integer with a value of 0 or 1, and R 1 and R 2 are independently selected from the group consisting of H, a polyoxyalkylene chain, C 1-8 alkyl, C 6-10 aryl, C 7-16 alkaryl, polyoxyalkylene chain substituted C 1-8 alkyl, polyoxyalkylene chain substituted C 6-10 aryl, polyoxyalkylene chain substituted C 7-16 alkaryl and mixtures thereof; said polyoxyalkylene chains independently having from about 2 to about 100 repeating units.
A method of receiving an extended subheader while communicating between entities in a mobile communication system, the method comprising: receiving, by a base station from a mobile station, a Protocol Data Unit, PDU, including a Medium Access Channel, MAC, header, wherein the MAC header comprises a type field indicating which subheaders are attached to the PDU and an Extended Subheader Format, ESF, field indicating whether an extended subheader group is present; determining, by the base station, whether the extended subheader group is present in the PDU from the ESF field; and identifying, by the base station, at least one extended subheader from the extended subheader group, wherein the extended subheader group appears immediately after the MAC header and before the subheaders, wherein the extended subheader group includes at least one of a MIMO mode feedback extended subheader, an uplink, UL, transmission Power Report extended subheader, a mini-feedback extended subheader, a PDU SN short extended subheader and a PDU SN long extended subheader, and wherein the type field consists of a first bit indicating whether a Grant Management subheader is present or not, a second bit indicating whether a Packing subheader is present or not, a third bit indicating whether a Fragmentation subheader is present or not, a fourth bit indicating whether the Packing subheader or the Fragmentation subheader is extended or not, a fifth bit indicating whether ARQ Feedback Payload is present or not, and a sixth bit indicating whether a Mesh subheader is present or not. receiving, by a base station from a mobile station, a Protocol Data Unit, PDU, including a Medium Access Channel, MAC, header, wherein the MAC header comprises a type field indicating which subheaders are attached to the PDU and an Extended Subheader Format, ESF, field indicating whether an extended subheader group is present; determining, by the base station, whether the extended subheader group is present in the PDU from the ESF field; and identifying, by the base station, at least one extended subheader from the extended subheader group, wherein the extended subheader group appears immediately after the MAC header and before the subheaders, wherein the extended subheader group includes at least one of a MIMO mode feedback extended subheader, an uplink, UL, transmission Power Report extended subheader, a mini-feedback extended subheader, a PDU SN short extended subheader and a PDU SN long extended subheader, and wherein the type field consists of a first bit indicating whether a Grant Management subheader is present or not, a second bit indicating whether a Packing subheader is present or not, a third bit indicating whether a Fragmentation subheader is present or not, a fourth bit indicating whether the Packing subheader or the Fragmentation subheader is extended or not, a fifth bit indicating whether ARQ Feedback Payload is present or not, and a sixth bit indicating whether a Mesh subheader is present or not.
A fusion protein composed of an enzyme having the activity of degrading the cell wall of Gram-negative bacteria and/or Gram-positive bacteria and at least two peptide stretches fused to the enzyme at the N- or C-terminus, wherein the peptide stretches have a length of 5 to 50 amino acid residues and wherein the peptide stretches are a polycationic peptide and an antimicrobial peptide; and wherein the enzyme exhibits an amino acid sequence selected from the group consisting of SEQ ID NO: 1 to 18, wherein at least 70% of the amino acid residues of the polycationic peptide are positively charged amino acid residues, in particular lysine and/or arginine residues, and wherein the antimicrobial peptide exhibits an amino acid sequence selected from the group consisting of SEQ ID NOs: 44 to 63 and 78 to 98.
A method for measuring influenza B virus, said method comprising carrying out an immunoassay of influenza B virus by a sandwich method using two kinds of monoclonal antibodies each of which specifically reacts with the region of the 125th to 248th amino acids of matrix protein of influenza B virus, said two kinds of monoclonal antibodies being capable of binding to the region of the 125th to 248th amino acids of M1 at the same time, or antigen-binding fragments thereof, wherein the amino acid sequence of M1 is set forth in SEQ ID NO: 1.
A state of health, SOH, analyzing apparatus, comprising: a memory unit configured to store a reference temperature increase rate of a discharge last half with depth of discharge, DOD, of 50% or above calculated from a reference temperature data according to DOD of a reference battery; and a control unit, wherein the control unit includes: a measuring and recording unit configured to measure temperature data according to DOD while a battery in a full charge state is being discharged and store the measured temperature data in the memory unit; a calculating unit configured to calculate a temperature increase rate of the discharge last half with DOD of 50% or above from the temperature data according to DOD obtained by the measuring and recording unit; and a determining unit configured to determine a degree of degradation of the battery in comparison to the reference battery by comparing the reference temperature increase rate and the temperature increase rate. a measuring and recording unit configured to measure temperature data according to DOD while a battery in a full charge state is being discharged and store the measured temperature data in the memory unit; a calculating unit configured to calculate a temperature increase rate of the discharge last half with DOD of 50% or above from the temperature data according to DOD obtained by the measuring and recording unit; and a determining unit configured to determine a degree of degradation of the battery in comparison to the reference battery by comparing the reference temperature increase rate and the temperature increase rate.
A process for converting a terminal alkyne into an alkynoic acid comprising exposing the alkyne to carbon dioxide in the presence of a copper species, a base and a complexing agent capable of complexing copper.
An active stylus (100; 200; 300) comprising: a housing (120; 220; 320) containing a power supply, the housing having a cylindrical shape associated with a first cross-sectional area, wherein the first cross-sectional area has a first dimension along a first axis and a second dimension along a second axis, the first axis perpendicular to the second axis; and a shell (150; 250; 350) rotatably connected to the housing; wherein the first dimension of the first cross-sectional area is smaller than the second dimension of the first cross-sectional area and in that a second cross-sectional area including both the shell (150; 250; 350) and the housing (120; 220; 320) has a third dimension along the first axis that is substantially the same as the first dimension while the shell (150; 250; 350) is in a first position and substantially the same as the second dimension while the shell (150; 250; 350) is in a second position, and wherein the stylus (100; 200; 300) is configured for being stored in a dedicated compartment (400; 401; 402; 403) in a touch-screen while in the first position. a housing (120; 220; 320) containing a power supply, the housing having a cylindrical shape associated with a first cross-sectional area, wherein the first cross-sectional area has a first dimension along a first axis and a second dimension along a second axis, the first axis perpendicular to the second axis; and a shell (150; 250; 350) rotatably connected to the housing; wherein the first dimension of the first cross-sectional area is smaller than the second dimension of the first cross-sectional area and in that a second cross-sectional area including both the shell (150; 250; 350) and the housing (120; 220; 320) has a third dimension along the first axis that is substantially the same as the first dimension while the shell (150; 250; 350) is in a first position and substantially the same as the second dimension while the shell (150; 250; 350) is in a second position, and wherein the stylus (100; 200; 300) is configured for being stored in a dedicated compartment (400; 401; 402; 403) in a touch-screen while in the first position.
An insertable medical device capable of delivering a bioactive agent to a subject, the device comprising: - an expandable elastic portion, - a coating comprising a biodegradable polymeric matrix on the expandable elastic portion, and - microparticulates associated with the biodegradable polymeric matrix, the microparticulates comprising a bioactive agent, wherein at least a portion of the biodegradable matrix with associated microparticulates are capable of becoming delaminated from the elastic portion upon expansion of the elastic portion in the subject - an expandable elastic portion, - a coating comprising a biodegradable polymeric matrix on the expandable elastic portion, and - microparticulates associated with the biodegradable polymeric matrix, the microparticulates comprising a bioactive agent, wherein at least a portion of the biodegradable matrix with associated microparticulates are capable of becoming delaminated from the elastic portion upon expansion of the elastic portion in the subject