mhurhangee/ep-ind-claims huggingface dataset:
Package of a food product comprising a container and a sealing foil connected to the mouth edge of the container and a scooping tool for picking up the product, fixed to the surface of the sealing foil, the tool is a flattened body of cellulosic or wood-cellulosic material, shaped like a spatula, and is fixed to a surface of the sealing foil, characterized in that - the sealing foil has a plastic surface, - wherein the tool is fixed to said surface of the sealing foil by ultrasound welding, in the absence of an added adhesive material. - the sealing foil has a plastic surface, - wherein the tool is fixed to said surface of the sealing foil by ultrasound welding, in the absence of an added adhesive material.
A spinel powder coated with granular spinel particles, wherein the granular spinel particles have a size of 0.1 to 4 μm, and the spinel powder has a mean particle diameter D50 of 10 to 70 μm and a specific surface area of 0.2 to 2m 2 /g, wherein the spinel powder has an alumina content of 69 to 82% and a magnesia content of 18 to 31%, and wherein the spinel powder has X-ray diffraction intensity ratios: a ratio I[αAl 2 O 3]/{I[αAl 2 O 3] + I[MgAl 2 O 4]} of 0.03 or less, and a ratio I[MgO]/{I[MgO] + I[MgAI 2 O 4]} of 0.03 or less. a ratio I[αAl 2 O 3]/{I[αAl 2 O 3] + I[MgAl 2 O 4]} of 0.03 or less, and a ratio I[MgO]/{I[MgO] + I[MgAI 2 O 4]} of 0.03 or less.
A tank comprising an electrical device attached to a first connector, said first connector being adapted for being coupled to a second connector, said first connector comprising a first plastic part and at least one first electrically conductive contact element (121, 122), said at least one first electrically conductive contact element (121, 122) being electrically connected with said electrical device, said second connector comprising a second plastic part and at least one second electrically conductive contact element (221, 222), said at least one second electrically conductive contact element (221, 222) being configured for being coupled with said at least one first electrically conductive contact element (121, 122), wherein said first plastic part is welded along an outer circumferential edge, which is a closed curve extending around the at least one first electrically conductive contact element (121, 122), to a plastic portion inside the tank, characterised in that said second plastic part comprises an outer circumferential edge welded to: - an outer side of said tank surrounding a connector opening; or - the outer circumferential edge of the first plastic part, the second plastic part of the second connector being the plastic portion inside the tank. - an outer side of said tank surrounding a connector opening; or - the outer circumferential edge of the first plastic part, the second plastic part of the second connector being the plastic portion inside the tank.
An isolated antibody or antigen binding fragment that specifically binds PD-L1 wherein: (a) the light chain variable region is SEQ ID NO:13 and the heavy chain variable region is SEQ ID NO:20; or (b) the light chain variable region is SEQ ID NO:25 and the heavy chain variable region is SEQ ID NO:32, wherein X in SEQ ID NO:32 is Q or pE. (a) the light chain variable region is SEQ ID NO:13 and the heavy chain variable region is SEQ ID NO:20; or (b) the light chain variable region is SEQ ID NO:25 and the heavy chain variable region is SEQ ID NO:32, wherein X in SEQ ID NO:32 is Q or pE.
A cardiac pacemaker for implantation within a subject, the pacemaker comprising a housing; at least one sensor (3, 5) configured to detect an activity level of the subject and produce output indicating the activity level; and at least one processor inside the housing, the at least one processor being responsive to the output from the sensor and configured to stimulate a remodeling of the subject's heart muscle through modulation of the subject's heart rate by: detecting inactivity of the subject based on the output from the at least one sensor; when said inactivity of the subject is detected, producing a first signal configured to increase the heart rate of the subject to a first heart rate during a first time period, wherein the first heart rate is above a resting heart rate and below 100 beats per minute; characterised in that said processor is further configured to stimulate said remodeling by, in response to determining that the first time period has elapsed, producing a second signal configured to increase the heart rate of the subject to a second heart rate during a second time period, wherein the second heart rate is between 100 and 140 beats per minute. a housing; at least one sensor (3, 5) configured to detect an activity level of the subject and produce output indicating the activity level; and at least one processor inside the housing, the at least one processor being responsive to the output from the sensor and configured to stimulate a remodeling of the subject's heart muscle through modulation of the subject's heart rate by: detecting inactivity of the subject based on the output from the at least one sensor; when said inactivity of the subject is detected, producing a first signal configured to increase the heart rate of the subject to a first heart rate during a first time period, wherein the first heart rate is above a resting heart rate and below 100 beats per minute; characterised in that said processor is further configured to stimulate said remodeling by, in response to determining that the first time period has elapsed, producing a second signal configured to increase the heart rate of the subject to a second heart rate during a second time period, wherein the second heart rate is between 100 and 140 beats per minute. detecting inactivity of the subject based on the output from the at least one sensor; when said inactivity of the subject is detected, producing a first signal configured to increase the heart rate of the subject to a first heart rate during a first time period, wherein the first heart rate is above a resting heart rate and below 100 beats per minute; characterised in that said processor is further configured to stimulate said remodeling by, in response to determining that the first time period has elapsed, producing a second signal configured to increase the heart rate of the subject to a second heart rate during a second time period, wherein the second heart rate is between 100 and 140 beats per minute.
A polymeric coating for a urinary catheter, being a copolymer of at least a first photoinitiator monomer and at least one second monomer; said first monomer having formula: in which: Pi is a photoinitiator moiety; wherein linker Z in formula has the structure: -C(R 3)(R 4)-Za- in which the -C(R 3)(R 4)- moiety is linked to the acrylamide N-atom in formula; wherein Za is a linker moiety selected from a single bond, optionally substituted C 1 -C 12 alkylene, optionally substituted C 1 -C 12 alkenylene; -O-; -S-; -NR a -; -CO-NR a -; optionally substituted heterocyclyl; optionally substituted arylene; optionally substituted -[O-(C 1 -C 12 alkylene)] n -, optionally substituted -[NR 1 -(C 1 -C 12 alkylene)] n; optionally substituted -[S-(C 1 -C 12 alkylene)] n -; and combinations thereof; wherein n is an integer from 1-20, and wherein R a is H or optionally substituted C 1 -C 6 alkyl; R 3 and R 4 are independently selected from optionally substituted C 1 -C 6 alkyl; R 1 is selected from H and optionally substituted C 1 -C 6 alkyl; R 2 is selected from H; and wherein said at least one second monomer comprises an unsaturated C=C bond. said first monomer having formula: in which: Pi is a photoinitiator moiety; wherein linker Z in formula has the structure: -C(R 3)(R 4)-Za- in which the -C(R 3)(R 4)- moiety is linked to the acrylamide N-atom in formula; wherein Za is a linker moiety selected from a single bond, optionally substituted C 1 -C 12 alkylene, optionally substituted C 1 -C 12 alkenylene; -O-; -S-; -NR a -; -CO-NR a -; optionally substituted heterocyclyl; optionally substituted arylene; optionally substituted -[O-(C 1 -C 12 alkylene)] n -, optionally substituted -[NR 1 -(C 1 -C 12 alkylene)] n; optionally substituted -[S-(C 1 -C 12 alkylene)] n -; and combinations thereof; wherein n is an integer from 1-20, and wherein R a is H or optionally substituted C 1 -C 6 alkyl; R 3 and R 4 are independently selected from optionally substituted C 1 -C 6 alkyl; R 1 is selected from H and optionally substituted C 1 -C 6 alkyl; R 2 is selected from H; R 1 is selected from H and optionally substituted C 1 -C 6 alkyl; R 2 is selected from H; and wherein said at least one second monomer comprises an unsaturated C=C bond.
A device for controlled intermittent or continuous delivery of nitric oxide to the lung of a mammal, said device comprising: a reaction chamber (16, 54) in fluid communication with the mammal; a system to introduce reactants into the reaction chamber that react therein to form NO; a moveable reaction surface (24, 28) included by the reaction chamber and having solid nitrite salt or a reductant disposed thereon; a controllable liquid dispensing system adapted to introduce liquid aqueous droplets comprising a dissolved reductant or nitrite salt at a controlled rate onto the reaction surface to form NO for delivery to the patient by inhalation; and a control system for controlling the reaction between the reactants in the reaction chamber to produce a predetermined quantity of NO for delivery to the mammal wherein the delivery of NO to the lung is controlled by controlling the rate of the droplets. a reaction chamber (16, 54) in fluid communication with the mammal; a system to introduce reactants into the reaction chamber that react therein to form NO; a moveable reaction surface (24, 28) included by the reaction chamber and having solid nitrite salt or a reductant disposed thereon; a controllable liquid dispensing system adapted to introduce liquid aqueous droplets comprising a dissolved reductant or nitrite salt at a controlled rate onto the reaction surface to form NO for delivery to the patient by inhalation; and a control system for controlling the reaction between the reactants in the reaction chamber to produce a predetermined quantity of NO for delivery to the mammal wherein the delivery of NO to the lung is controlled by controlling the rate of the droplets.
A bone conduction earphone for communicating with the outside world comprising: a magnetic body, being a member with an axial direction and an outer circumference, having an aeration hole at the center part of the axial direction; a damper provided at the outer circumference of the magnetic body; and a coil bobbin, which is provided at the outer circumference of the magnetic body, accommodating the damper within a trunk part of the coil bobbin, the magnetic body being interposed within the coil bobbin; wherein a coil is wound around the outer circumference of the trunk part of the coil bobbin. a magnetic body, being a member with an axial direction and an outer circumference, having an aeration hole at the center part of the axial direction; a damper provided at the outer circumference of the magnetic body; and a coil bobbin, which is provided at the outer circumference of the magnetic body, accommodating the damper within a trunk part of the coil bobbin, the magnetic body being interposed within the coil bobbin; wherein a coil is wound around the outer circumference of the trunk part of the coil bobbin.
A magnetic resonance imaging apparatus comprising: a collecting unit configured to collect a plurality of fluid images that are images of a fluid traveling through a subject; a specifying unit configured to specify an incremental traveled distance of the fluid for each incremental time interval between the fluid images by calculating the incremental traveled distance from a difference image between a reference image that is one of the fluid images and each other fluid image, wherein the incremental traveled distance is a traveled distance of the fluid in an incremental time interval between the fluid images; an acquiring unit configured to acquire an elapsed time corresponding to the incremental traveled distance for each incremental time interval between the fluid images from pulse sequence information that is used to collect the fluid images, wherein the elapsed time is an elapsed time in which MR signals with which the center part of a k space is filled are collected; and a calculating unit configured to calculate a flow velocity of the fluid for each incremental time interval between the fluid images by dividing the incremental traveled distance by the elapsed time. a collecting unit configured to collect a plurality of fluid images that are images of a fluid traveling through a subject; a specifying unit configured to specify an incremental traveled distance of the fluid for each incremental time interval between the fluid images by calculating the incremental traveled distance from a difference image between a reference image that is one of the fluid images and each other fluid image, wherein the incremental traveled distance is a traveled distance of the fluid in an incremental time interval between the fluid images; an acquiring unit configured to acquire an elapsed time corresponding to the incremental traveled distance for each incremental time interval between the fluid images from pulse sequence information that is used to collect the fluid images, wherein the elapsed time is an elapsed time in which MR signals with which the center part of a k space is filled are collected; and a calculating unit configured to calculate a flow velocity of the fluid for each incremental time interval between the fluid images by dividing the incremental traveled distance by the elapsed time.
A process for applying a non-aqueous two-component filler coating composition comprising a binder component and a curing component onto a substrate, the process comprising: i) heating at least one of the binder component and the curing component to a temperature in the range of from 40 to 140 °C, preferably of from 50 to 90 °C; ii) subsequently mixing the binder component and the curing component to obtain hot filler coating composition; iii) spraying the hot filler coating composition obtained in step ii) onto the substrate to obtain a filler coating layer having a wet film thickness in the range of from 1 to 30 mm; iv) optionally spraying further hot filler coating composition obtained in step ii) to obtain one or more further filler coating layers having a wet film thickness in the range of from 1 to 30 mm; and v) allowing the filler coating layer(s) obtained in step iii) and, if present, in step iv) to cure to obtain a cured filler coating, wherein the binder component comprises an epoxy resin and the curing component comprises a curing agent for curing the epoxy resin and wherein the filler coating composition comprises: a) in the range of from 15 to 35 wt% hollow glass microspheres, wherein the hollow glass microspheres have an average density in the range of from 0.23 to 0.70 g/cm 3 and a mean particle size of at most 52 μm; b) in the range of from 0 to 15 wt%, preferably of from 1 to 10 wt%, inorganic solid material other than hollow glass microspheres; and c) in the range of from 0 to 20 wt% organic solvent. i) heating at least one of the binder component and the curing component to a temperature in the range of from 40 to 140 °C, preferably of from 50 to 90 °C; ii) subsequently mixing the binder component and the curing component to obtain hot filler coating composition; iii) spraying the hot filler coating composition obtained in step ii) onto the substrate to obtain a filler coating layer having a wet film thickness in the range of from 1 to 30 mm; iv) optionally spraying further hot filler coating composition obtained in step ii) to obtain one or more further filler coating layers having a wet film thickness in the range of from 1 to 30 mm; and v) allowing the filler coating layer(s) obtained in step iii) and, if present, in step iv) to cure to obtain a cured filler coating, a) in the range of from 15 to 35 wt% hollow glass microspheres, wherein the hollow glass microspheres have an average density in the range of from 0.23 to 0.70 g/cm 3 and a mean particle size of at most 52 μm; b) in the range of from 0 to 15 wt%, preferably of from 1 to 10 wt%, inorganic solid material other than hollow glass microspheres; and c) in the range of from 0 to 20 wt% organic solvent.
A slop prevention apparatus for damping slopping movements of a liquid medium in a tank, having a slop prevention element for damping slopping movements which is formed by a textile area-measured material and which is at least partly fluid-permeable, and having a fastening element for fastening the slop prevention element in the tank, wherein the slop prevention element has a microstructure for damping the slopping movements which is determined by the structure of the textile area-measured material, characterized in that the slop prevention element has a macrostructure for damping the slopping movements which is produced by an arrangement, in particular by a shape, of the textile area-measured material.
Cleaning trolley with a metering device for surface cleaners, comprising: - a mixing tank that can be filled with any desired amount of water up to a maximum amount; - at least one storage tank (12; 14) for surface cleaners; and - a measuring cell in the mixing tank for determining the conductance of the mixture; wherein - a computing unit is provided, which compares the conductance determined by the measuring cell with a predefined conductance and outputs a signal when the predefined conductance is reached. - a mixing tank that can be filled with any desired amount of water up to a maximum amount; - at least one storage tank (12; 14) for surface cleaners; and - a measuring cell in the mixing tank for determining the conductance of the mixture; wherein - a computing unit is provided, which compares the conductance determined by the measuring cell with a predefined conductance and outputs a signal when the predefined conductance is reached.
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: receiving, from a network, a configuration of a preconfigured uplink resource, PUR; while in a radio resource control, RRC, idle state and/or an RRC inactive state: i) performing uplink, LTL, data transmission using the PUR to the network; ii) monitoring a physical downlink control channel, PDCCH, to acquire downlink, DL, information on a physical downlink shared channel, PDSCH, from the network, after performing the UL data transmission using the PUR; and iii) based on the DL information including only a timing advance command, TAC, media access control, MAC, control element, CE, considering that the LTL data transmission using the PUR is successful. receiving, from a network, a configuration of a preconfigured uplink resource, PUR; while in a radio resource control, RRC, idle state and/or an RRC inactive state: i) performing uplink, LTL, data transmission using the PUR to the network; ii) monitoring a physical downlink control channel, PDCCH, to acquire downlink, DL, information on a physical downlink shared channel, PDSCH, from the network, after performing the UL data transmission using the PUR; and iii) based on the DL information including only a timing advance command, TAC, media access control, MAC, control element, CE, considering that the LTL data transmission using the PUR is successful. i) performing uplink, LTL, data transmission using the PUR to the network; ii) monitoring a physical downlink control channel, PDCCH, to acquire downlink, DL, information on a physical downlink shared channel, PDSCH, from the network, after performing the UL data transmission using the PUR; and iii) based on the DL information including only a timing advance command, TAC, media access control, MAC, control element, CE, considering that the LTL data transmission using the PUR is successful.
A method of handling signaling and data transmission for machine-type communication, MTC, for a core network of a mobile communication system, wherein the core network comprises a network control node and a network gateway node, the method comprising: the network control node sending a message to the network gateway node, wherein the message comprises a suppression setting for the network gateway node to selectively perform suppression operation on at least a signaling or a trigger request from a MTC server according to whether the core network is congested or overloaded; wherein the suppression setting comprises at least one of a suppressing factor, a suppressing duration, a suppressing application identifier, a suppress-identifier, a group of MTC devices with a specific group identifier, a priority type, a particular MTC server, a particular MTC server with a specific Transmission Control Protocol, TCP, port or a specific User Datagram Protocol, UDP, port, a Mobility Management Entity, MME, identifier, a Serving GPRS Support Node, SGSN, identifier, a specific access point name, APN, and a MME identifier or a SGSN identifier associated with a specific APN. the network control node sending a message to the network gateway node, wherein the message comprises a suppression setting for the network gateway node to selectively perform suppression operation on at least a signaling or a trigger request from a MTC server according to whether the core network is congested or overloaded; wherein the suppression setting comprises at least one of a suppressing factor, a suppressing duration, a suppressing application identifier, a suppress-identifier, a group of MTC devices with a specific group identifier, a priority type, a particular MTC server, a particular MTC server with a specific Transmission Control Protocol, TCP, port or a specific User Datagram Protocol, UDP, port, a Mobility Management Entity, MME, identifier, a Serving GPRS Support Node, SGSN, identifier, a specific access point name, APN, and a MME identifier or a SGSN identifier associated with a specific APN.
A sheet folding device comprising: a transfer belt that transfers a transfer sheet in a direction of transfer; a forming belt that abuts against a folding surface which is formed by folding both end portions of the transfer sheet in a width direction orthogonal to the direction of transfer and folds both of the end portions of the transfer sheet in the width direction; a folding bar that is disposed in the direction of transfer, abuts against the folding surface at both of the end portions of the folded transfer sheet in the width direction, and guides both of the end portions of the transfersheet in the width direction; a moving mechanism that moves the folding bar in the width direction and in a vertical direction; and a control unit that controls the moving mechanism to adjust a position of the folding bar, wherein the moving mechanism includes an inlet side support mechanism that supports an inlet side of the folding bar in the direction of transfer, an outlet side support mechanism that supports an outlet side of the folding bar in the direction of transfer, and a central gripping moving mechanism that grips the folding bar between the inlet side support mechanism and the outlet side support mechanism to move the folding bar in the width direction and in the vertical direction. a transfer belt that transfers a transfer sheet in a direction of transfer; a forming belt that abuts against a folding surface which is formed by folding both end portions of the transfer sheet in a width direction orthogonal to the direction of transfer and folds both of the end portions of the transfer sheet in the width direction; a folding bar that is disposed in the direction of transfer, abuts against the folding surface at both of the end portions of the folded transfer sheet in the width direction, and guides both of the end portions of the transfersheet in the width direction; a moving mechanism that moves the folding bar in the width direction and in a vertical direction; and a control unit that controls the moving mechanism to adjust a position of the folding bar,