mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the floating cultivation of a plant , the device comprising: - a panel-shaped carrier comprising: - a top wall ; - mounting openings in the top wall; - at least one gastight air chamber which, in a state in which the panel-shaped carrier is floating on a water surface: - is surrounded in a gastight manner by one or more downwardly directed air-chamber walls which are provided to the top wall and which form an air-chamber periphery ; and - is sealed in a gastight manner from the mounting openings by means of downwardly directed mounting walls which form a mounting periphery ; - is sealed in a gastight manner at the top side by the top wall ; - is sealed in a gastight manner at the bottom side by the water surface in which the entire air-chamber periphery is placed, CHARACTERIZED IN THAT at least one of the gastight air chambers comprises two or more connected air-chamber segments which are separated from each other by one or more downwardly directed air-chamber segment walls which are provided to the top wall , and wherein at least one air-chamber segment wall is configured such that, in the floating state, the air pressure in connected air-chamber segments can equalize. - a panel-shaped carrier comprising: - a top wall ; - mounting openings in the top wall; - at least one gastight air chamber which, in a state in which the panel-shaped carrier is floating on a water surface: - is surrounded in a gastight manner by one or more downwardly directed air-chamber walls which are provided to the top wall and which form an air-chamber periphery ; and - is sealed in a gastight manner from the mounting openings by means of downwardly directed mounting walls which form a mounting periphery ; - is sealed in a gastight manner at the top side by the top wall ; - is sealed in a gastight manner at the bottom side by the water surface in which the entire air-chamber periphery is placed, - a top wall ; - mounting openings in the top wall; - at least one gastight air chamber which, in a state in which the panel-shaped carrier is floating on a water surface: - is surrounded in a gastight manner by one or more downwardly directed air-chamber walls which are provided to the top wall and which form an air-chamber periphery ; and - is sealed in a gastight manner from the mounting openings by means of downwardly directed mounting walls which form a mounting periphery ; - is sealed in a gastight manner at the top side by the top wall ; - is sealed in a gastight manner at the bottom side by the water surface in which the entire air-chamber periphery is placed, - is surrounded in a gastight manner by one or more downwardly directed air-chamber walls which are provided to the top wall and which form an air-chamber periphery ; and - is sealed in a gastight manner from the mounting openings by means of downwardly directed mounting walls which form a mounting periphery ; - is sealed in a gastight manner at the top side by the top wall ; - is sealed in a gastight manner at the bottom side by the water surface in which the entire air-chamber periphery is placed,
An anti-Flt-1 antibody or antigen binding fragment thereof for use in a method of treating bronchopulmonary dysplasia (BPD) in an infant in need of such treatment, wherein the anti-Flt-1 antibody or antigen-binding fragment selectively binds to Flt-1 and inhibits VEGF from binding to Flt-1.
A manufacturing method of an electrode, the manufacturing method comprising the steps of preparing an electrode forming composition comprising a support, catalyst particles, a precursor of organic functional metal oxide nanoparticles, and an ionomer; and coating the electrode forming composition to manufacture the electrode, wherein the precursor of the organic functional metal oxide nanoparticles forms the organic functional metal oxide nanoparticles by performing a sol-gel reaction. preparing an electrode forming composition comprising a support, catalyst particles, a precursor of organic functional metal oxide nanoparticles, and an ionomer; and coating the electrode forming composition to manufacture the electrode, wherein the precursor of the organic functional metal oxide nanoparticles forms the organic functional metal oxide nanoparticles by performing a sol-gel reaction.
A communication method, comprising: receiving, by a terminal device , first indication information sent by a base station , when a signal quality of a resource currently used does not satisfy one or more conditions including a signal quality parameter less than a threshold, wherein the first indication information is used to instruct the terminal device to perform uplink transmission by using at least one configured resource, and the at least one configured resource comprises a resource that is different from the resource currently used by the terminal device and does not include the resource currently used by the terminal device ; sending , by the terminal device , one or more signals to the base station by using one or more resources in the at least one configured resource according to the first indication information; and receiving, by the terminal device , third indication sent by the base station , wherein the third indication information is used to instruct the terminal device to perform as second uplink transmission using a target resource selected from the one or more configured resources, wherein the at least one configured resource comprises at least one beam and the target resource comprises a target beam. receiving, by a terminal device , first indication information sent by a base station , when a signal quality of a resource currently used does not satisfy one or more conditions including a signal quality parameter less than a threshold, wherein the first indication information is used to instruct the terminal device to perform uplink transmission by using at least one configured resource, and the at least one configured resource comprises a resource that is different from the resource currently used by the terminal device and does not include the resource currently used by the terminal device ; sending , by the terminal device , one or more signals to the base station by using one or more resources in the at least one configured resource according to the first indication information; and receiving, by the terminal device , third indication sent by the base station , wherein the third indication information is used to instruct the terminal device to perform as second uplink transmission using a target resource selected from the one or more configured resources, wherein the at least one configured resource comprises at least one beam and the target resource comprises a target beam.
Method for the preparation of polyol esters, in particular polyglycerol esters, from optionally acylated 3-hydroxybutyric acid (beta-hydroxybutyric acid, BHB or 3-BHB), wherein at least one compound of the general formula (I) CH 3 - CH(OR 1 ) - CH 2 - C(O) - O - C(O) - CH 2 - CH(OR 1 ) - CH 3 (I) wherein in the general formula (I) the radical R 1 is an acyl group selected from - C(O) - CH 3 (acetyl group) or - C(O) - C 2 H 5 (propionyl group), preferably - C(O) - CH 3 (acetyl group), is reacted with at least one polyol (II) containing at least two hydroxyl groups (OH groups), in particular polyglycerol, optionally followed by hydrolysis of the acyl groups, so that one or more polyol esters, in particular polyglycerol esters, of optionally acylated 3-hydroxybutyric acid are obtained as reaction product (III). wherein at least one compound of the general formula (I) CH 3 - CH(OR 1 ) - CH 2 - C(O) - O - C(O) - CH 2 - CH(OR 1 ) - CH 3 (I) wherein in the general formula (I) the radical R 1 is an acyl group selected from - C(O) - CH 3 (acetyl group) or - C(O) - C 2 H 5 (propionyl group), preferably - C(O) - CH 3 (acetyl group), is reacted with at least one polyol (II) containing at least two hydroxyl groups (OH groups), in particular polyglycerol, optionally followed by hydrolysis of the acyl groups, so that one or more polyol esters, in particular polyglycerol esters, of optionally acylated 3-hydroxybutyric acid are obtained as reaction product (III).
A panel comprising: - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides; - first and second opposite end sides; and - panel coupling means arranged for coupling said panel to adjacent panels (201,..., 206); whereby - at least first and second longitudinal grooves arranged in said base layer and facing said heat providing layer , said at least first and second longitudinal grooves being arranged in parallel with, and having at least first and second distances to, said first and second longitudinal sides, respectively; and - at least one first and at least one second electrical end connectors arranged in said at least first and second longitudinal grooves to protrude from at least one of said first and said second end sides, and arranged for being electrically connected to said heat providing layer ; characterized by - said at least first and second longitudinal grooves being arranged in said base layer from said first end side to said second end side ; and - said at least one first and at least one second electrical end connectors arranged for being at least partly resilient, thereby providing a connecting force F con being essentially perpendicular to said at least one of said first and said second end sides when said panel is coupled to at least one adjacent panel , and being directed towards at least one corresponding end connector of said at least one adjacent panel . - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides; - first and second opposite end sides; and - panel coupling means arranged for coupling said panel to adjacent panels (201,..., 206); - at least first and second longitudinal grooves arranged in said base layer and facing said heat providing layer , said at least first and second longitudinal grooves being arranged in parallel with, and having at least first and second distances to, said first and second longitudinal sides, respectively; and - at least one first and at least one second electrical end connectors arranged in said at least first and second longitudinal grooves to protrude from at least one of said first and said second end sides, and arranged for being electrically connected to said heat providing layer ; - said at least first and second longitudinal grooves being arranged in said base layer from said first end side to said second end side ; and - said at least one first and at least one second electrical end connectors arranged for being at least partly resilient, thereby providing a connecting force F con being essentially perpendicular to said at least one of said first and said second end sides when said panel is coupled to at least one adjacent panel , and being directed towards at least one corresponding end connector of said at least one adjacent panel .
A method for determining a flight path for an aircraft system, the method being performed by a system comprising a processor and a memory containing instructions executable by said processor , the method further comprising: analysing an intensity map relating to a three dimensional space, wherein the intensity map comprises an array of voxels, each voxel defining a volume in the three dimensional space; determining a probability of an encounter for a preferred flight path between a start point and an end point via one or more voxels in the three dimensional space, based on traffic intensity values of the one or more voxels along the preferred flight path ; and selecting the preferred flight path if the probability of encounter is less than a first threshold value, characterised in that each voxel has a related traffic intensity value based on historical flight data through that voxel. analysing an intensity map relating to a three dimensional space, wherein the intensity map comprises an array of voxels, each voxel defining a volume in the three dimensional space; determining a probability of an encounter for a preferred flight path between a start point and an end point via one or more voxels in the three dimensional space, based on traffic intensity values of the one or more voxels along the preferred flight path ; and selecting the preferred flight path if the probability of encounter is less than a first threshold value, characterised in that each voxel has a related traffic intensity value based on historical flight data through that voxel.
An article comprising: a case for receiving a removable article, the case having an outer surface; a switchable decorative sheet member having: a first side and a second side, neither of the first and second sides having an adhesive; a fixation sheet member having: a third side configured to be attached to the outer surface of the case, the third side including a permanent adhesive with a first adhesion characteristic; and a fourth side, opposite the third side and configured to receive one of the first and second sides of the switchable decorative sheet member, the fourth side having a repositionable adhesive with a second adhesion characteristic, the second adhesion characteristic being less permanent than the first adhesion characteristic; wherein the switchable decorative sheet member is configured to be removed from the fixation sheet member that is firmly attached to the outer surface of the case through the third side of the fixation sheet member including the permanent adhesive. a case for receiving a removable article, the case having an outer surface; a switchable decorative sheet member having: a first side and a second side, neither of the first and second sides having an adhesive; a fixation sheet member having: a third side configured to be attached to the outer surface of the case, the third side including a permanent adhesive with a first adhesion characteristic; and a fourth side, opposite the third side and configured to receive one of the first and second sides of the switchable decorative sheet member, the fourth side having a repositionable adhesive with a second adhesion characteristic, the second adhesion characteristic being less permanent than the first adhesion characteristic; wherein the switchable decorative sheet member is configured to be removed from the fixation sheet member that is firmly attached to the outer surface of the case through the third side of the fixation sheet member including the permanent adhesive. a third side configured to be attached to the outer surface of the case, the third side including a permanent adhesive with a first adhesion characteristic; and a fourth side, opposite the third side and configured to receive one of the first and second sides of the switchable decorative sheet member, the fourth side having a repositionable adhesive with a second adhesion characteristic, the second adhesion characteristic being less permanent than the first adhesion characteristic;
An unlicensed spectrum-based wireless communication method, comprising: occupying , by a base station, a first carrier on an unlicensed spectrum by using a first clear channel assessment, CCA, wherein the first CCA is a CCA with random backoff; occupying , by the base station, a second carrier on the unlicensed spectrum by using a second CCA, wherein the second CCA is a single-slot CCA; wherein a maximum channel occupancy time, MCOT, of the base station on the second carrier is determined as equal to the MCOT on which the base station performs the CCA with random backoff currently on the first carrier; sending , by the base station, first indication information to a terminal device, wherein the first indication information is used to instruct the terminal device to send uplink information to the base station on the second carrier in the MCOT; and after sending the first indication information, receiving , by the base station on the second carrier in the MCOT, the uplink information from the terminal device. occupying , by a base station, a first carrier on an unlicensed spectrum by using a first clear channel assessment, CCA, wherein the first CCA is a CCA with random backoff; occupying , by the base station, a second carrier on the unlicensed spectrum by using a second CCA, wherein the second CCA is a single-slot CCA; wherein a maximum channel occupancy time, MCOT, of the base station on the second carrier is determined as equal to the MCOT on which the base station performs the CCA with random backoff currently on the first carrier; sending , by the base station, first indication information to a terminal device, wherein the first indication information is used to instruct the terminal device to send uplink information to the base station on the second carrier in the MCOT; and after sending the first indication information, receiving , by the base station on the second carrier in the MCOT, the uplink information from the terminal device.
Steering rod or track rod having a one-piece connecting tube , wherein the end portions of the connecting tube each receive parts of articulated connections , characterized in that the connecting tube is reinforced in regions by at least one tube portion connected to the connecting tube in a force-fitting manner, wherein the outer wall or the inner wall of the tube portion lies over the full surface area against a wall of the connecting tube , forming a press connection, wherein the connecting tube is plastically deformed radially circumferentially within a common connecting portion which is spaced apart from the ends of the connecting tube , wherein, in the connecting portion , the connecting tube has an increased inside and outside diameter or a reduced inside and outside diameter in comparison to the portions which are not plastically deformed radially.
Electrolyte composition comprising: - a fluorinated solvent, - lithium bis(fluorosulfonyl)imide; and - at least one electrolyte salt. wherein the fluorinated solvent is an acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2 wherein i) R 1 is an alkyl group; ii) R 2 is a fluoroalkyl group; and iii) R 1 and R 2 , taken as a pair, comprise at least two carbon atoms but not more than seven carbon atoms. - a fluorinated solvent, - lithium bis(fluorosulfonyl)imide; and - at least one electrolyte salt. i) R 1 is an alkyl group; ii) R 2 is a fluoroalkyl group; and iii) R 1 and R 2 , taken as a pair, comprise at least two carbon atoms but not more than seven carbon atoms.
A method for producing a dye-free medical towel from a dye-free cotton material , comprising: preparing the dye-free cotton material for processing by: disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; degreasing , after the preparing, the dye-free cotton material by: heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; forming, after the degreasing, the dye-free cotton material into a dye-free medical towel. preparing the dye-free cotton material for processing by: disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; degreasing , after the preparing, the dye-free cotton material by: heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; forming, after the degreasing, the dye-free cotton material into a dye-free medical towel.
A method for analyzing seismic data, the method comprising: receiving low frequency content of ambient noise associated with seismic data; identifying one or more sources of the ambient noise for each of a plurality of analyzed frequencies based on the received low frequency content; separating the one or more sources of ambient noise based on the received low frequency content; generating a plurality of velocity versus frequency functions associated to one or more geographical locations based on an analysis of the low frequency content associated with each of the one or more sources of ambient noise; and transforming the plurality of velocity versus frequency functions into a plurality of velocity versus depth functions. receiving low frequency content of ambient noise associated with seismic data; identifying one or more sources of the ambient noise for each of a plurality of analyzed frequencies based on the received low frequency content; separating the one or more sources of ambient noise based on the received low frequency content; generating a plurality of velocity versus frequency functions associated to one or more geographical locations based on an analysis of the low frequency content associated with each of the one or more sources of ambient noise; and transforming the plurality of velocity versus frequency functions into a plurality of velocity versus depth functions.