mhurhangee/ep-ind-claims huggingface dataset:
A wavelength tunable laser emission device, comprising: a first waveguide (31, 131) comprising an optical amplification means for producing a stimulated light emission, the first waveguide extending in a longitudinal direction of the emission device, a second waveguide (5, 105) made of silicon on silicon dioxide and disposed parallel to the first waveguide spaced from the first waveguide in a vertical direction of the emission device so as to allow the existence of a hybrid optical mode coupled at one and the same time to the second waveguide and to the first waveguide, the second waveguide comprising a distributed reflector (9, 109) along the second waveguide square with the first waveguide, the second waveguide comprising transverse zones (11, 12, 13, 14; 111, 112, 113, 114, 46, 47, 48) doped differently so as to form a polar junction oriented in a transverse direction of the emission device, first electrodes (35, 36; 135, 136) coupled to the first waveguide for injecting a pumping current into the optical amplification means, and second electrodes (15, 16; 115, 116) coupled to the doped transverse zones of the second waveguide so as to modify an effective index of the second waveguide seen by the hybrid optical mode. a first waveguide (31, 131) comprising an optical amplification means for producing a stimulated light emission, the first waveguide extending in a longitudinal direction of the emission device, a second waveguide (5, 105) made of silicon on silicon dioxide and disposed parallel to the first waveguide spaced from the first waveguide in a vertical direction of the emission device so as to allow the existence of a hybrid optical mode coupled at one and the same time to the second waveguide and to the first waveguide, the second waveguide comprising a distributed reflector (9, 109) along the second waveguide square with the first waveguide, the second waveguide comprising transverse zones (11, 12, 13, 14; 111, 112, 113, 114, 46, 47, 48) doped differently so as to form a polar junction oriented in a transverse direction of the emission device, first electrodes (35, 36; 135, 136) coupled to the first waveguide for injecting a pumping current into the optical amplification means, and second electrodes (15, 16; 115, 116) coupled to the doped transverse zones of the second waveguide so as to modify an effective index of the second waveguide seen by the hybrid optical mode.
A method of selecting a transmission resource for a transport block, TB, by a user equipment, UE, in a wireless communication system, the method comprising: randomly selecting a first frequency band for a first TB among a plurality of frequency bands in which a system band is divided by a preconfigured frequency interval; randomly selecting a first time resource for the first TB; determining first frequency resources within first frequency band; and transmitting the first TB using the first frequency resources and the first time resource, wherein the first frequency band includes a guard band formed by limiting a size of the first frequency resources, wherein the UE randomly selects a second time resource for a second TB, which is a repetitive transmission of the first TB, and determines second frequency resources for the second TB based on an time interval between the first time resource and the second time resource, wherein when the time interval is equal to or greater than a preconfigured threshold, the second frequency resource is determined within a second frequency band randomly selected from among the plurality of frequency bands, and wherein when the time interval is less than the preconfigured threshold, the second frequency resource is determined only within the first frequency band. randomly selecting a first frequency band for a first TB among a plurality of frequency bands in which a system band is divided by a preconfigured frequency interval; randomly selecting a first time resource for the first TB; determining first frequency resources within first frequency band; and transmitting the first TB using the first frequency resources and the first time resource, wherein the first frequency band includes a guard band formed by limiting a size of the first frequency resources, wherein the UE randomly selects a second time resource for a second TB, which is a repetitive transmission of the first TB, and determines second frequency resources for the second TB based on an time interval between the first time resource and the second time resource, wherein when the time interval is equal to or greater than a preconfigured threshold, the second frequency resource is determined within a second frequency band randomly selected from among the plurality of frequency bands, and wherein when the time interval is less than the preconfigured threshold, the second frequency resource is determined only within the first frequency band.
A method comprising: receiving, by a first base station from a second base station, a power value for selection of a first uplink carrier of a cell of the second base station or a second uplink carrier of the cell of the second base station; receiving, by the first base station from a wireless device, a measurement report comprising a reference signal received power, RSRP, of the cell of the second base station; determining, by the first base station, a handover decision for the wireless device to the first uplink carrier or the second uplink carrier of the cell of the second base station based on: the power value; and the RSRP; and sending, by the first base station and based on the handover decision, a handover message associated with the wireless device. receiving, by a first base station from a second base station, a power value for selection of a first uplink carrier of a cell of the second base station or a second uplink carrier of the cell of the second base station; receiving, by the first base station from a wireless device, a measurement report comprising a reference signal received power, RSRP, of the cell of the second base station; determining, by the first base station, a handover decision for the wireless device to the first uplink carrier or the second uplink carrier of the cell of the second base station based on: the power value; and the RSRP; and the power value; and the RSRP; and sending, by the first base station and based on the handover decision, a handover message associated with the wireless device.
A connector, comprising: a first connector unit having at least one electrical pin, the pin having a forward end portion which projects in a forward direction and includes a first electrical contact and a rear end portion; a second connector unit having at least one contact chamber containing at least one electrical socket module which receives the electrical pin when the connector units are in a mated condition, the socket module including a second electrical contact; the connector units (14,12) being movable between an unmated condition and a mated condition in which they are in releasable mating engagement and the first and second contacts are in electrical communication; the contact chamber having a forward end opening which receives the electrical pin, and a forward end seal assembly having at least one forward end seal which seals against the outer surface of the pin in the mated condition; the first connector unit having a front pin seal which is engaged over part of the forward end portion of the pin at a location spaced from the electrical contact, and a multi-layer boot seal (96, 66) surrounding the rear end portion of the pin; the front pin seal of the first connector unit being in sealing engagement with the forward end seal of the second connector unit in the mated condition of the units (14,12); and the front pin seal and forward end seal each comprising at least one layer (95, 105) of semi-conductive material. a first connector unit having at least one electrical pin, the pin having a forward end portion which projects in a forward direction and includes a first electrical contact and a rear end portion; a second connector unit having at least one contact chamber containing at least one electrical socket module which receives the electrical pin when the connector units are in a mated condition, the socket module including a second electrical contact; the connector units (14,12) being movable between an unmated condition and a mated condition in which they are in releasable mating engagement and the first and second contacts are in electrical communication; the contact chamber having a forward end opening which receives the electrical pin, and a forward end seal assembly having at least one forward end seal which seals against the outer surface of the pin in the mated condition; the first connector unit having a front pin seal which is engaged over part of the forward end portion of the pin at a location spaced from the electrical contact, and a multi-layer boot seal (96, 66) surrounding the rear end portion of the pin; the front pin seal of the first connector unit being in sealing engagement with the forward end seal of the second connector unit in the mated condition of the units (14,12); and the front pin seal and forward end seal each comprising at least one layer (95, 105) of semi-conductive material.
An isolated hybrid polypeptide having cellobiohydrolase activity, comprising: (a) a first polypeptide fragment comprising a cellobiohydrolase catalytic domain at the N-terminal end of the hybrid polypeptide selected from the group consisting of (i) a polypeptide fragment having at least 96% sequence identity to amino acids 19 to 455 of SEQ ID NO: 2; (ii) a polypeptide fragment encoded by a polynucleotide having at least 96% sequence identity to nucleotides 55 to 1485 of SEQ ID NO: 1 or the cDNA sequence thereof; and (iii) a polypeptide fragment comprising or consisting of amino acids 19 to 455 of SEQ ID NO: 2 or a fragment thereof having cellobiohydrolase activity; and (b) a second polypeptide fragment comprising a carbohydrate binding domain at the C-terminal end of the first polypeptide fragment selected from the group consisting of (i) a polypeptide fragment having at least 96% sequence identity to amino acids 485 to 529 of SEQ ID NO: 4; (ii) a polypeptide fragment encoded by a polynucleotide having at least 96% sequence identity to nucleotides 1453 to 1587 of SEQ ID NO: 3; and (iii) a polypeptide fragment comprising or consisting of amino acids 485 to 529 of SEQ ID NO: 4 or a fragment thereof having carbohydrate binding activity.
A data transmission method, comprising: receiving, by user equipment, UE, first synchronization source configuration information on a first carrier, wherein the first synchronization source configuration information is used for determining a first synchronization source; determining, by the UE, the first synchronization source based on the first synchronization source configuration information, wherein the first synchronization source is used for providing a synchronization clock required for transmitting data on a second carrier for the UE, and a frequency of the first carrier is different from a frequency of the second carrier; determining, by the UE, that a synchronization with the first synchronization source fails; determining, by the UE, a second synchronization source and a transmission resource, the transmission resource is associated with the second synchronization source; and transmitting, by the UE, the data in a direct communication manner on the transmission resource of the second carrier and based on the second synchronization source. receiving, by user equipment, UE, first synchronization source configuration information on a first carrier, wherein the first synchronization source configuration information is used for determining a first synchronization source; determining, by the UE, the first synchronization source based on the first synchronization source configuration information, wherein the first synchronization source is used for providing a synchronization clock required for transmitting data on a second carrier for the UE, and a frequency of the first carrier is different from a frequency of the second carrier; determining, by the UE, that a synchronization with the first synchronization source fails; determining, by the UE, a second synchronization source and a transmission resource, the transmission resource is associated with the second synchronization source; and transmitting, by the UE, the data in a direct communication manner on the transmission resource of the second carrier and based on the second synchronization source.
Dulaglutide for use in treating Chronic Kidney Disease in a patient, wherein the patient has: a) Estimated glomerular filtration rate (eGFR) between 15-89 mL/min/1.73 m 2; and b) Urine albumin (mg/dl) to urine creatine (g/dl) (UACR) greater than 300 mg/g; wherein an effective amount of dulaglutide is administered once a week for at least 6 months; and wherein dulaglutide is administered at a dose of 1.5 mg. wherein the patient has: a) Estimated glomerular filtration rate (eGFR) between 15-89 mL/min/1.73 m 2; and b) Urine albumin (mg/dl) to urine creatine (g/dl) (UACR) greater than 300 mg/g; a) Estimated glomerular filtration rate (eGFR) between 15-89 mL/min/1.73 m 2; and b) Urine albumin (mg/dl) to urine creatine (g/dl) (UACR) greater than 300 mg/g; wherein an effective amount of dulaglutide is administered once a week for at least 6 months; and wherein dulaglutide is administered at a dose of 1.5 mg.
A gas-lubricated mechanical seal arrangement adapted to use a gaseous fluid as a barrier medium, comprising - a mechanical seal comprising a rotating slide ring and a stationary slide ring defining a seal gap therebetween, - a biasing device which biases the stationary slide ring in the direction of the rotating slide ring, - a fluid chamber into which a gaseous fluid can be introduced, - a first slide ring carrier for retaining the rotating slide ring, wherein the first slide ring carrier has a first axial surface, - a second slide ring carrier for retaining the stationary slide ring, the second slide ring carrier having a second axial surface, - an axial gap which is limited by the first axial surface and the second axial surface, and - an antechamber which is formed at the sealing gap of the mechanical seal and which is connected to the fluid chamber via the axial gap, characterized in that - the second slide ring carrier and the stationary slide ring are arranged together on a displacement surface so as to be displaceable in the axial direction (X-X). - a mechanical seal comprising a rotating slide ring and a stationary slide ring defining a seal gap therebetween, - a biasing device which biases the stationary slide ring in the direction of the rotating slide ring, - a fluid chamber into which a gaseous fluid can be introduced, - a first slide ring carrier for retaining the rotating slide ring, wherein the first slide ring carrier has a first axial surface, - a second slide ring carrier for retaining the stationary slide ring, the second slide ring carrier having a second axial surface, - an axial gap which is limited by the first axial surface and the second axial surface, and - an antechamber which is formed at the sealing gap of the mechanical seal and which is connected to the fluid chamber via the axial gap, - the second slide ring carrier and the stationary slide ring are arranged together on a displacement surface so as to be displaceable in the axial direction (X-X).
A pulling and alignment system for flanged components (10, 12), the system comprising: at least one pair of flange attachments (26, 28) adapted to be fixed to respective flanges (14, 16) of the components (10, 12) that are to be pulled together and aligned for coupling; a puller device supported by at least one of the flange attachments (26, 28) of the pair; and a flexible elongate pulling link extending between the flange attachments (26, 28) of the or each pair, the pulling link being engaged by, and movable relative to, the puller device to act in tension between those flange attachments (26, 28); wherein the pulling link is an articulated rod comprising a longitudinal series of rigid elements, each of those elements being pivotably coupled to at least one other of those elements. at least one pair of flange attachments (26, 28) adapted to be fixed to respective flanges (14, 16) of the components (10, 12) that are to be pulled together and aligned for coupling; a puller device supported by at least one of the flange attachments (26, 28) of the pair; and a flexible elongate pulling link extending between the flange attachments (26, 28) of the or each pair, the pulling link being engaged by, and movable relative to, the puller device to act in tension between those flange attachments (26, 28); wherein the pulling link is an articulated rod comprising a longitudinal series of rigid elements, each of those elements being pivotably coupled to at least one other of those elements.
A package blank for a scoop-type carton board package which can be used e.g. for French fries or other snack food, the blank comprising - a back panel, intended to form a back panel of the package, comprising a back panel edge, - a front panel, intended to form a front panel of the package, comprising a front panel edge, - a bottom panel, intended to form a bottom panel of the package, comprising a bottom panel left side edge and a bottom panel right side edge, - a left side panel, intended to form a left panel of the package, comprising a left side panel edge, - a right side panel, intended to form a right panel of the package, comprising a right side panel edge, - a left glue flap, intended to adhere the left side panel to the back panel or the front panel of the package, comprising a left glue flap edge, - a right glue flap, intended to adhere the right side panel to the back panel or the front panel of the package, comprising a right glue flap edge, whereby the back panel and the front panel are separated from the bottom panel by curved folding lines and the back panel and the front panel are arranged next to the bottom panel on opposite sides of it in a grain direction of the package blank, and whereby the left side panel and the right side panel are arranged next to the front panel on opposite sides of it in a cross-grain direction of the package blank, characterised by that the left glue flap and the right glue flap are arranged next to the back panel on opposite sides of it in a cross-grain direction of the package blank and a part of a left side panel edge is parallel to at least a part of a right glue flap edge and that at least a part of a right side panel edge is parallel to at least a part of a left glue flap edge and at least some straight first parts of each of the following - the left side panel edge, - the right glue flap edge, - the right side panel edge, and - the left glue flap edge, are arranged at an angle of same size against the grain direction of the package blank, where said angle is advantageously between 7,5 and 10,5 degrees or between 8,5 and 9,5 degrees. - a back panel, intended to form a back panel of the package, comprising a back panel edge, - a front panel, intended to form a front panel of the package, comprising a front panel edge, - a bottom panel, intended to form a bottom panel of the package, comprising a bottom panel left side edge and a bottom panel right side edge, - a left side panel, intended to form a left panel of the package, comprising a left side panel edge, - a right side panel, intended to form a right panel of the package, comprising a right side panel edge, - a left glue flap, intended to adhere the left side panel to the back panel or the front panel of the package, comprising a left glue flap edge, - a right glue flap, intended to adhere the right side panel to the back panel or the front panel of the package, comprising a right glue flap edge, - the left side panel edge, - the right glue flap edge, - the right side panel edge, and - the left glue flap edge,
An installation structure for mounted LED screens, comprising a LED screen and a vertical column; the LED screen comprising a screen cabinet and a crossbeam, the crossbeam is arranged horizontally and firmly on the back of the screen cabinet; the vertical column is vertically arranged on the ground or other installation platform, characterized in that the installation structure for mounted LED screens further includes a hook profile, wherein a side of the hook profile is provided with a mount groove extending in the longitudinal direction of the hook profile and adapting to the crossbeam, wherein the opening of the mount groove is upward; the crossbeam is arranged in the mount groove, wherein the hook profile is connected horizontally and firmly to the vertical column. the installation structure for mounted LED screens further includes a hook profile, wherein a side of the hook profile is provided with a mount groove extending in the longitudinal direction of the hook profile and adapting to the crossbeam, wherein the opening of the mount groove is upward; the crossbeam is arranged in the mount groove, wherein the hook profile is connected horizontally and firmly to the vertical column.
A sealant composition, wherein, the sealant composition comprises latex emulsion, nanoporous particles, surfactant, anti-freezing agent, wetting agent, and water; the nanoporous particles include at least one of zeolite, carbon aerogel, diatomite, porous metal organic frameworks.