mhurhangee/ep-ind-claims huggingface dataset:
An information scheduling method, performed by a first communication node, comprising: receiving physical downlink shared channel, PDSCH, configuration information from a second communication node, wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0, a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; receiving downlink control information, DCI, from the second communication node; and determining scheduling information of a PDSCH on a plurality of carriers according to the PDSCH configuration information and the DCI; receiving the PDSCH on the plurality of carriers according to the scheduling information. receiving physical downlink shared channel, PDSCH, configuration information from a second communication node, wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0, a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0, a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; receiving downlink control information, DCI, from the second communication node; and determining scheduling information of a PDSCH on a plurality of carriers according to the PDSCH configuration information and the DCI; receiving the PDSCH on the plurality of carriers according to the scheduling information.
A navigation system comprising: an inertial navigation system arranged to output a first position estimate; a terrain based navigation unit arranged to output a second position estimate; a gravity based navigation unit arranged to output a third position estimate; a stored gravity map arranged to receive a position and to output gravity information for that position; and an iterative algorithm unit arranged to determine an INS error state representing an estimated error in the first position estimate from the inertial navigation system in each iteration; wherein in each iteration the iterative algorithm unit is arranged to: receive the first position estimate, the second position estimate, and the third position estimate; determine a gravity information via the stored gravity map for one of the received first, second and third position estimates; determine a gravity corrected position estimate based on the first position estimate, the INS error state and said gravity information; and update the INS error state for the next iteration based on the INS error state, the gravity corrected position estimate, the second position estimate and the third position estimate. an inertial navigation system arranged to output a first position estimate; a terrain based navigation unit arranged to output a second position estimate; a gravity based navigation unit arranged to output a third position estimate; a stored gravity map arranged to receive a position and to output gravity information for that position; and an iterative algorithm unit arranged to determine an INS error state representing an estimated error in the first position estimate from the inertial navigation system in each iteration; wherein in each iteration the iterative algorithm unit is arranged to: receive the first position estimate, the second position estimate, and the third position estimate; determine a gravity information via the stored gravity map for one of the received first, second and third position estimates; determine a gravity corrected position estimate based on the first position estimate, the INS error state and said gravity information; and update the INS error state for the next iteration based on the INS error state, the gravity corrected position estimate, the second position estimate and the third position estimate. receive the first position estimate, the second position estimate, and the third position estimate; determine a gravity information via the stored gravity map for one of the received first, second and third position estimates; determine a gravity corrected position estimate based on the first position estimate, the INS error state and said gravity information; and update the INS error state for the next iteration based on the INS error state, the gravity corrected position estimate, the second position estimate and the third position estimate.
A coaxial cable-connector assembly, comprising: (a) a coaxial cable, comprising: an inner conductor; a dielectric layer circumferentially surrounding the inner conductor; an outer conductor circumferentially surrounding the dielectric layer; and a jacket circumferentially surrounding the outer conductor; (b) a coaxial connector, comprising: an inner contact electrically connected with the inner conductor; an outer body spaced apart from and circumferentially surrounding the inner contact; and a dielectric spacer interposed between the inner contact and the outer body; (c) a rear body 150) having a main section, a rear collet extending rearwardly from the main section, and a front engagement structure that coordinates with the outer body to engage the outer conductor; and (d) a nut having a threaded section and a tapered inner surface; wherein the front engagement structure is a front collet that extends forwardly from the main section, and wherein engagement of the front collet with the outer body deflects the front collet to engage one of a plurality of corrugations of the outer conductor, characterized in that engagement of the nut with a threaded section on one of the rear body and the outer body advances the nut forwardly so that the tapered inner surface of the nut deflects the rear collet radially inwardly to engage the cable jacket. (a) a coaxial cable, comprising: an inner conductor; a dielectric layer circumferentially surrounding the inner conductor; an outer conductor circumferentially surrounding the dielectric layer; and a jacket circumferentially surrounding the outer conductor; an inner conductor; a dielectric layer circumferentially surrounding the inner conductor; an outer conductor circumferentially surrounding the dielectric layer; and a jacket circumferentially surrounding the outer conductor; (b) a coaxial connector, comprising: an inner contact electrically connected with the inner conductor; an outer body spaced apart from and circumferentially surrounding the inner contact; and a dielectric spacer interposed between the inner contact and the outer body; an inner contact electrically connected with the inner conductor; an outer body spaced apart from and circumferentially surrounding the inner contact; and a dielectric spacer interposed between the inner contact and the outer body; (c) a rear body 150) having a main section, a rear collet extending rearwardly from the main section, and a front engagement structure that coordinates with the outer body to engage the outer conductor; and (d) a nut having a threaded section and a tapered inner surface; wherein the front engagement structure is a front collet that extends forwardly from the main section, and wherein engagement of the front collet with the outer body deflects the front collet to engage one of a plurality of corrugations of the outer conductor, characterized in that engagement of the nut with a threaded section on one of the rear body and the outer body advances the nut forwardly so that the tapered inner surface of the nut deflects the rear collet radially inwardly to engage the cable jacket.
A method of interrogating a phase based transducer, said transducer adapted to provide a phase output in response to a sensed parameter, said method comprising: Inputting first and second input pulses to said transducer, said pulses having a time delay therebetween, and wherein at least one of said input pulses contains components of at least two different wavelengths, Receiving an output from said transducer corresponding to a combination of said first and second input pulses, and Performing interferometric detection on the output to produce a signal representative of the phase at a synthetic wavelength which is a combination of said two different wavelengths, said signal providing a measure of the sensed parameter. Inputting first and second input pulses to said transducer, said pulses having a time delay therebetween, and wherein at least one of said input pulses contains components of at least two different wavelengths, Receiving an output from said transducer corresponding to a combination of said first and second input pulses, and Performing interferometric detection on the output to produce a signal representative of the phase at a synthetic wavelength which is a combination of said two different wavelengths, said signal providing a measure of the sensed parameter.
A tobacco packing, which comprises a cellulose substrate, characterized in that the cellulose substrate is coated with a water-repellent layer at least in certain areas, wherein the water-repellent layer includes a polymeric chromium complex with at least one organic ligand, wherein the at least one organic ligand is selected from a group including saturated fatty acids and mono- or polyunsaturated fatty acids, and wherein an application amount of the water-repellent layer on the cellulose substrate is between 0.01 g/m 2 and 5 g/m 2.
An isolated human factor VIII polypeptide mutant comprising one or more amino acid substitution(s) selected from the group consisting of I86, Y105, Q117, G132, H134, M147 and L152.
A method for transferring energy, said method comprising the steps of: a. feeding a material (m) comprising an absorbed fluid into a first part of a tube (t) at a defined rate, wherein the material (m) has the ability to absorb the fluid at a second temperature and the ability to desorb the absorbed fluid at a higher first temperature, wherein the material (m) is present as particles, b. heating the tube (t) to at least the higher first temperature so that at least a part of the fluid is desorbed in gas phase from the material (m), wherein a fluid flow is created by the desorbed fluid in the tube (t), causing a flow of the material (m) present as particles, wherein the cross sectional area of the tube (t), the length (L pipe) of the tube (t), and the inside volume of the tube (t) are adapted to the defined feeding rate of the amount of material (m) comprising absorbed fluid, which is fed into the first part of the tube (t), wherein the fluid flow in the entire tube (t) has a velocity higher than the saltation velocity (u salt) and c. performing one of i. separating at least a part of the material (m) from the fluid exiting the tube (t) to obtain material (m) with no or reduced amount of absorbed fluid, and ii. cooling the material (m) and fluid exiting from the tube (t) so that at least a part of the fluid is absorbed by the material (m) whereby heat is released. a. feeding a material (m) comprising an absorbed fluid into a first part of a tube (t) at a defined rate, wherein the material (m) has the ability to absorb the fluid at a second temperature and the ability to desorb the absorbed fluid at a higher first temperature, wherein the material (m) is present as particles, b. heating the tube (t) to at least the higher first temperature so that at least a part of the fluid is desorbed in gas phase from the material (m), wherein a fluid flow is created by the desorbed fluid in the tube (t), causing a flow of the material (m) present as particles, wherein the cross sectional area of the tube (t), the length (L pipe) of the tube (t), and the inside volume of the tube (t) are adapted to the defined feeding rate of the amount of material (m) comprising absorbed fluid, which is fed into the first part of the tube (t), wherein the fluid flow in the entire tube (t) has a velocity higher than the saltation velocity (u salt) and c. performing one of i. separating at least a part of the material (m) from the fluid exiting the tube (t) to obtain material (m) with no or reduced amount of absorbed fluid, and ii. cooling the material (m) and fluid exiting from the tube (t) so that at least a part of the fluid is absorbed by the material (m) whereby heat is released. i. separating at least a part of the material (m) from the fluid exiting the tube (t) to obtain material (m) with no or reduced amount of absorbed fluid, and ii. cooling the material (m) and fluid exiting from the tube (t) so that at least a part of the fluid is absorbed by the material (m) whereby heat is released.
A diversion device for diverting breathing gas which is laden with CO2 from an overpressure region of an arrangement that includes a breathing mask and serves to deliver a breathing gas at a pressure level that is above the ambient pressure, having a tubular stub structure - defining a breathing gas conduit that extends between an inlet cross section on the hose side and an outlet cross section on the mask side, - and which is provided, in a region located between the inlet cross section and the outlet cross section, with an outflow orifice portion, by way of which the breathing gas to be discharged reaches the environment, characterized in that, in a region located between the outflow orifice portion and the outlet cross section on the mask side of the breathing gas conduit, a double-walled structure that surrounds the breathing gas conduit and that comprises an inlet gap region arranged outside of the breathing gas conduit, is configured for sampling the breathing gas to be discharged from a mask interior. - defining a breathing gas conduit that extends between an inlet cross section on the hose side and an outlet cross section on the mask side, - and which is provided, in a region located between the inlet cross section and the outlet cross section, with an outflow orifice portion, by way of which the breathing gas to be discharged reaches the environment,
A medical apparatus comprising: an expansion device for bone expansion, which comprises a proximal end and a distal end between which the expansion device extends in a longitudinal direction, and expansion means which are arranged in succession in the longitudinal direction, wherein the expansion means can be expanded radially for exertion of force on a bone; an actuator which is configured to expand the expansion means of the expansion device; characterized by a controller which can control the actuator such that the expansion means expand in accordance with the principle of callus distraction. an expansion device for bone expansion, which comprises a proximal end and a distal end between which the expansion device extends in a longitudinal direction, and expansion means which are arranged in succession in the longitudinal direction, wherein the expansion means can be expanded radially for exertion of force on a bone; an actuator which is configured to expand the expansion means of the expansion device; characterized by a controller which can control the actuator such that the expansion means expand in accordance with the principle of callus distraction.
A stomal cover comprising: a hollow stomal insert sized and shaped for insertion into the opening of a stoma in a wall of an abdominal cavity; and a cap shape attached at a proximal end of said stomal insert; the cap shape extending outward from the stomal insert to circumferentially cover the stoma and define a hollow void containing the stoma characterized in that the cap shape of the stomal cover is invertible to expose the stoma. a hollow stomal insert sized and shaped for insertion into the opening of a stoma in a wall of an abdominal cavity; and a cap shape attached at a proximal end of said stomal insert; the cap shape extending outward from the stomal insert to circumferentially cover the stoma and define a hollow void containing the stoma characterized in that the cap shape of the stomal cover is invertible to expose the stoma.
A method for manufacturing an article, comprising: initiating an additive manufacturing process of the article on a bed associated with an additive manufacturing system using an additive manufacturing process, wherein the article is positioned relative to the bed with a plurality of positioning features (50, 70) that are received in corresponding ones of a plurality of openings (54, 74) in the bed; forming a portion of the article using the additive manufacturing process; pausing the additive manufacturing process prior to completion of the article; performing (110, 114) a procedure on the portion of the article, wherein the procedure is not an additive manufacturing process performed using the additive manufacturing system; after performing the procedure, resuming the additive manufacturing process of the article; completing the additive manufacturing process of the article; and removing the article from the bed, characterized in that the article is formed around kinetic balls of the plurality of positioning features such that the article partially encapsulates the kinetic balls, or the article is formed around pins of the plurality of positioning features such that the article adheres to the pins or partly encapsulates the pins. initiating an additive manufacturing process of the article on a bed associated with an additive manufacturing system using an additive manufacturing process, wherein the article is positioned relative to the bed with a plurality of positioning features (50, 70) that are received in corresponding ones of a plurality of openings (54, 74) in the bed; forming a portion of the article using the additive manufacturing process; pausing the additive manufacturing process prior to completion of the article; performing (110, 114) a procedure on the portion of the article, wherein the procedure is not an additive manufacturing process performed using the additive manufacturing system; after performing the procedure, resuming the additive manufacturing process of the article; completing the additive manufacturing process of the article; and removing the article from the bed, characterized in that the article is formed around kinetic balls of the plurality of positioning features such that the article partially encapsulates the kinetic balls, or the article is formed around pins of the plurality of positioning features such that the article adheres to the pins or partly encapsulates the pins.
A yellow-green to yellow-emitting halogenated lutetium aluminate phosphor having the formula: (Lu 1-x-y A x Ce y) 3 B z Al 5 O 12 C 2z; where A is Gd; B is at least one of Sr and Ba; C is at least one of F, Cl, Br, and I; 0 < x ≤ 0.5; 0.001 ≤ y ≤ 0.2; and 0.001 ≤ z ≤ 0.5; wherein said phosphor is configured to emit light having a peak emission wavelength ranging from 550 nm to 600 nm. A is Gd; B is at least one of Sr and Ba; C is at least one of F, Cl, Br, and I; 0 < x ≤ 0.5; 0.001 ≤ y ≤ 0.2; and 0.001 ≤ z ≤ 0.5;
A granule comprising (a) a core which comprises an enzyme, surrounded by (b) a first coating which comprises a bleach catalyst comprising manganese and a ligand which is di- or trimethyltriazacyclononane or 1,4,7-trimethyl-1,4,7-triazacyclononane or 1,2,4,7-tetramethyl-1,4,7-triazacyclononane, which is surrounded by (c) a second coating comprising at least 60% by weight of a water-soluble salt having a constant humidity at 20°C which is above 85%. (a) a core which comprises an enzyme, surrounded by (b) a first coating which comprises a bleach catalyst comprising manganese and a ligand which is di- or trimethyltriazacyclononane or 1,4,7-trimethyl-1,4,7-triazacyclononane or 1,2,4,7-tetramethyl-1,4,7-triazacyclononane, which is surrounded by (c) a second coating comprising at least 60% by weight of a water-soluble salt having a constant humidity at 20°C which is above 85%.
An advanced epoxy resin comprising a reaction product of at least one epoxy resin; at least one cashew nutshell liquid; and at least one multifunctional carboxylic acid.
A monomer represented by the following general Formula: CH 2 =CR 1 -C(=O)-X-R 2 -Z-X 3 -NR 3 -C(=X 2)-X 1 -R 4 wherein: R 1 is H or -CH 3; R 2 is a (hetero)hydrocarbylene; X is -O- or -NH-; X 1 is -O-, -S-, -NH-, or a single bond; X 2 is -O- or -S-; X 3 is -O- or -NR 5 -; R 4 is hydrogen, (hetero)hydrocarbyl, or -N(R 3) 2; each R 3 and R 5 is independently hydrogen or a (hetero)hydrocarbyl; and Z is -C(=O)- or -NH-C(=O)-. R 1 is H or -CH 3; R 2 is a (hetero)hydrocarbylene; X is -O- or -NH-; X 1 is -O-, -S-, -NH-, or a single bond; X 2 is -O- or -S-; X 3 is -O- or -NR 5 -; R 4 is hydrogen, (hetero)hydrocarbyl, or -N(R 3) 2; each R 3 and R 5 is independently hydrogen or a (hetero)hydrocarbyl; and Z is -C(=O)- or -NH-C(=O)-.