mhurhangee/ep-ind-claims huggingface dataset:
A child safety seat for a vehicle comprising - an outer shell enclosing a seating area for a child and - a protective element, the protective element comprising - a housing component and - an impact component,wherein the housing component is embedded into the outer shell and the impact component is mounted to the housing component, is configured to be enclosed at least partially by the housing component, and is configured to protrude laterally from the outer shell in a direction facing away from the seating area, the impact component of the protective element being configured to be transferred from a rest position to a functioning position, and the impact component of the protective element being configured to protrude further from the outer shell when disposed in the functioning position than when disposed in the rest position, the housing component or the impact component comprising a deformable region adapted to cushion forces impacting on the impact component, characterized by the housing component being supported by a fixed bearing, the fixed bearing allowing the impact forces to be guided into a structurally stable part of the child safety seat, the impact component comprising a top portion and a bottom portion, the top portion being mounted on top of the bottom portion and the top portion being wider in diameter than the bottom portion, the outer edge of the top portion resting on the outer shell, when the impact component is retracted completely into the housing component. - an outer shell enclosing a seating area for a child and - a protective element, - a housing component and - an impact component,wherein
A method comprising: receiving, from a user equipment, a first message comprising a mobile station classmark, wherein the mobile station classmark comprises a first at least one user equipment capability and wherein the first message is further associated with a first communication link identifier; receiving, from the user equipment, a second message comprising a user equipment identity, wherein the second message is associated with a second communication link identifier; comparing the first communication link identifier with the second communication link identifier; in an instance in which the first communication link identifier and the second communication link identifier match, obtaining, from a database, a second at least one user equipment capability associated with the user equipment identity; comparing the first at least one user equipment capability with the second at least one user equipment capability; and in an instance in which the first at least one user equipment capability and the second at least one user equipment capability are different, detecting that the user equipment is an unlicensed user equipment, sending a notification, wherein sending the notification further comprises obtaining a subscriber identifier associated with the unlicensed user equipment and sending a warning message to the unlicensed user equipment, the warning message comprising an indication that the user equipment identity is counterfeit. receiving, from a user equipment, a first message comprising a mobile station classmark, wherein the mobile station classmark comprises a first at least one user equipment capability and wherein the first message is further associated with a first communication link identifier; receiving, from the user equipment, a second message comprising a user equipment identity, wherein the second message is associated with a second communication link identifier; comparing the first communication link identifier with the second communication link identifier; in an instance in which the first communication link identifier and the second communication link identifier match, obtaining, from a database, a second at least one user equipment capability associated with the user equipment identity; comparing the first at least one user equipment capability with the second at least one user equipment capability; and in an instance in which the first at least one user equipment capability and the second at least one user equipment capability are different, detecting that the user equipment is an unlicensed user equipment, sending a notification, wherein sending the notification further comprises obtaining a subscriber identifier associated with the unlicensed user equipment and sending a warning message to the unlicensed user equipment, the warning message comprising an indication that the user equipment identity is counterfeit.
Method for preparing transmembrane pH-gradient vesicles, comprising the steps of: a) preparing vesicles made from at least one matrix substance in an aqueous medium having an osmolarity of not more than 200 mOsm/l, wherein the matrix substance is chosen from the group consisting of amphiphilic lipids and amphiphilic block copolymers, b) mixing the vesicles with a basic or acidic buffer having an osmolarity being at least 200 mOsm/l higher than the osmolarity of the aqueous medium of step a) to apply an osmotic shock to the vesicles and to obtain buffer-filled vesicles and c) diluting a mixture of the aqueous medium and the basic or acidic buffer containing the buffer-filled vesicles by adding a neutralizing solution to obtain transmembrane pH- gradient vesicles suspended in a suspension buffer, wherein the suspension buffer differs from the basic or acidic buffer in pH value. a) preparing vesicles made from at least one matrix substance in an aqueous medium having an osmolarity of not more than 200 mOsm/l, wherein the matrix substance is chosen from the group consisting of amphiphilic lipids and amphiphilic block copolymers, b) mixing the vesicles with a basic or acidic buffer having an osmolarity being at least 200 mOsm/l higher than the osmolarity of the aqueous medium of step a) to apply an osmotic shock to the vesicles and to obtain buffer-filled vesicles and c) diluting a mixture of the aqueous medium and the basic or acidic buffer containing the buffer-filled vesicles by adding a neutralizing solution to obtain transmembrane pH- gradient vesicles suspended in a suspension buffer, wherein the suspension buffer differs from the basic or acidic buffer in pH value.
A display apparatus comprising: a display panel configured to display an image; and a touch antenna array disposed on the display panel, a touch driver; an antenna driver; wherein the touch antenna array includes: a plurality of touch electrodes configured for use in detecting a touch of a user; touch wiring electrically connecting the touch driver to the plurality of touch electrodes; and a plurality of antenna electrodes; an antenna feed network electrically connecting the antenna driver to the antenna electrodes; and a shielding electrode, wherein the touch wiring and the antenna feed network at least partially overlap each other in a plan view, with the shielding electrode disposed therebetween, wherein the antenna feed network is a combiner and/or divider network with a plurality of branch arms (BA_1 to BA_N) that are connected to the antenna electrodes, respectively, wherein the antenna driver is configured to transmit and/or receive a radio frequency, RF, signal to and/or from the plurality of antenna electrodes to perform a transmission and/or reception communication function. a display panel configured to display an image; and a touch antenna array disposed on the display panel, a touch driver; an antenna driver; wherein the touch antenna array includes: a plurality of touch electrodes configured for use in detecting a touch of a user; touch wiring electrically connecting the touch driver to the plurality of touch electrodes; and a plurality of antenna electrodes; an antenna feed network electrically connecting the antenna driver to the antenna electrodes; and a shielding electrode, wherein the touch wiring and the antenna feed network at least partially overlap each other in a plan view, with the shielding electrode disposed therebetween, a plurality of touch electrodes configured for use in detecting a touch of a user; touch wiring electrically connecting the touch driver to the plurality of touch electrodes; and a plurality of antenna electrodes; an antenna feed network electrically connecting the antenna driver to the antenna electrodes; and a shielding electrode, wherein the touch wiring and the antenna feed network at least partially overlap each other in a plan view, with the shielding electrode disposed therebetween, wherein the antenna feed network is a combiner and/or divider network with a plurality of branch arms (BA_1 to BA_N) that are connected to the antenna electrodes, respectively, wherein the antenna driver is configured to transmit and/or receive a radio frequency, RF, signal to and/or from the plurality of antenna electrodes to perform a transmission and/or reception communication function.
An article of footwear, comprising: an upper; a sole structure secured to the upper, the sole structure including a cavity; a force sensitive resistor having an active portion and a tail portion joined to the active portion, the force sensitive resistor comprising: a plurality of layers, each of the plurality of layers being elongated in a substantially horizontal direction and comprising: a top substrate layer; a first adhesive layer; and a bottom substrate layer, wherein the first adhesive layer is disposed between the top substrate layer and the bottom substrate layer; characterized in that a shaft extends in a substantially vertical direction through at least the bottom substrate layer, the shaft leading to an opening formed in an outermost surface of the bottom substrate layer; a horizontal passageway extends in a substantially horizontal direction from the active portion to the tail portion, the horizontal passageway being in fluid communication with the shaft, the horizontal passageway providing a first flowpath through the force sensitive resistor, the shaft providing a second flowpath through the force sensitive resistor; and an elastic membrane, secured over the opening, deforms in response to increased air pressure in the shaft. an upper; a sole structure secured to the upper, the sole structure including a cavity; a force sensitive resistor having an active portion and a tail portion joined to the active portion, the force sensitive resistor comprising: a plurality of layers, each of the plurality of layers being elongated in a substantially horizontal direction and comprising: a top substrate layer; a first adhesive layer; and a bottom substrate layer, a top substrate layer; a first adhesive layer; and a bottom substrate layer, wherein the first adhesive layer is disposed between the top substrate layer and the bottom substrate layer; characterized in that a shaft extends in a substantially vertical direction through at least the bottom substrate layer, the shaft leading to an opening formed in an outermost surface of the bottom substrate layer; a horizontal passageway extends in a substantially horizontal direction from the active portion to the tail portion, the horizontal passageway being in fluid communication with the shaft, the horizontal passageway providing a first flowpath through the force sensitive resistor, the shaft providing a second flowpath through the force sensitive resistor; and an elastic membrane, secured over the opening, deforms in response to increased air pressure in the shaft.
A method pertaining to an SCR system for cleaning of exhaust gases from an engine, which SCR system comprises a container arranged to hold a reducing agent, a first line adapted to lead said reducing agent to a pump from said container, wherein said pump is adapted to drawing said reducing agent from said container via said first line and supplying it via a second line to a dosing unit, wherein said dosing unit is arranged to supply a reducing agent to an exhaust duct, comprising the step of: - determining whether there is an undesired temperature level of said dosing unit, in which said determination of whether there is said undesired temperature level takes place after cessation of an exhaust flow, characterised by the steps: - if there is found to be said undesired temperature level, of removing warmed reducing agent from said dosing unit by supplying it to said exhaust duct, which entails - calculating and removing an amount of reducing agent which is removable on the basis of a prevailing temperature of the dosing unit and removing said amount of reducing agent by means of the existing pressurisation of the reducing agent in the dosing unit by internal pressure of the SCR system, or - removing a predetermined amount in the form of substantially all of the warmed reducing agent of the dosing unit from it to said exhaust duct, and removing reducing agent from said dosing unit by means of the existing pressurisation of the reducing agent in the dosing unit by internal pressure of the SCR system. - determining whether there is an undesired temperature level of said dosing unit, in which said determination of whether there is said undesired temperature level takes place after cessation of an exhaust flow, - if there is found to be said undesired temperature level, of removing warmed reducing agent from said dosing unit by supplying it to said exhaust duct, which entails - calculating and removing an amount of reducing agent which is removable on the basis of a prevailing temperature of the dosing unit and removing said amount of reducing agent by means of the existing pressurisation of the reducing agent in the dosing unit by internal pressure of the SCR system, or - removing a predetermined amount in the form of substantially all of the warmed reducing agent of the dosing unit from it to said exhaust duct, and removing reducing agent from said dosing unit by means of the existing pressurisation of the reducing agent in the dosing unit by internal pressure of the SCR system.
A monoclonal antibody for use in a method of treatment or prevention of a tauopathy, wherein the antibody binds to at least 8 contiguous amino acids within 410-421 of SEQ ID NO:1, including the amino acid at position 413, wherein said amino acid is phosphorylated.
A method of unloading liquid from a reservoir, the method comprising: introducing two amphoteric surfactants into the liquid, in order to foam the liquid; and then removing foamed liquid from the reservoir; wherein the first amphoteric surfactant is selected from C8-C22 sultaines, salts thereof and mixtures thereof; and the second amphoteric surfactant is selected from C8-C22 betaines and salts thereof, C8-C22 propionates and salts thereof, and mixtures thereof.
A suction positioning structure comprising: an output rod (3, 3B, 3C) which is movable in an axis direction, the output rod (3, 3B, 3C) having an air discharge passage (11, 11B, 11C), provided so as to extend in the axis direction, for suctioning a workpiece to be machined, a suction pad being attached to the output rod (3, 3B, 3C) so as to communicate with the air discharge passage (11, 11B, 11C); a sleeve fitted onto the output rod (3, 3B, 3C), which sleeve has a tapered outer circumferential surface and is elastically deformable so as to have a reduced diameter; a transmission member (5B, 5C) which has a tapered inner circumferential surface that faces the tapered outer circumferential surface of the sleeve; a plurality of balls inserted between the tapered inner circumferential surface and the tapered outer circumferential surface; and a locking operation chamber into which compressed air is supplied, the compressed air acting on an annular pressure-receiving surface of the transmission member (5B, 5C) so as to move the transmission member (5B, 5C) in the axis direction, wherein movement of the output rod (3, 3B, 3C) and movement of the transmission member (5B, 5C) are controllable individually. an output rod (3, 3B, 3C) which is movable in an axis direction, the output rod (3, 3B, 3C) having an air discharge passage (11, 11B, 11C), provided so as to extend in the axis direction, for suctioning a workpiece to be machined, a suction pad being attached to the output rod (3, 3B, 3C) so as to communicate with the air discharge passage (11, 11B, 11C); a sleeve fitted onto the output rod (3, 3B, 3C), which sleeve has a tapered outer circumferential surface and is elastically deformable so as to have a reduced diameter; a transmission member (5B, 5C) which has a tapered inner circumferential surface that faces the tapered outer circumferential surface of the sleeve; a plurality of balls inserted between the tapered inner circumferential surface and the tapered outer circumferential surface; and a locking operation chamber into which compressed air is supplied, the compressed air acting on an annular pressure-receiving surface of the transmission member (5B, 5C) so as to move the transmission member (5B, 5C) in the axis direction, wherein movement of the output rod (3, 3B, 3C) and movement of the transmission member (5B, 5C) are controllable individually.
Multiple charging device for charging a plurality of batteries (B1, B2, B3, B4, B5, B6), in particular a plurality of traction batteries (B1, B2, B3, B4, B5, B6) of industrial trucks, wherein the multiple charging device has fewer AC/DC converters than DC/DC converters, and wherein the AC/DC converter or converters is/are arranged so as to be spatially separated from at least some of the DC/DC converters, and wherein the AC/DC converter or converters is/are connected to a power grid connection and the DC/DC converters are connected to battery charging connections (b1, b2, b3, b4, b5, b6), characterized in that power lines (L2, L3) are provided, via which in each case the spatially separated AC/DC converters and DC/DC converters are connected to one another.
A compound 15 to 30 nucleobases in length targeted to the 3'-untranslated region (3'UTR) of a nucleic acid molecule encoding human apolipoprotein C-III, wherein said compound specifically hybridizes with said nucleic acid molecule encoding human apolipoprotein C-III and inhibits the expression of human apolipoprotein C-III, wherein said compound is at least 90% complementary to said nucleic acid molecule encoding human apolipoprotein C-III, for use in therapy.
An apparatus comprising: a rope socket coupled with an armored cable, wherein the armored cable comprises a conductor core comprising one or more cables for transmitting electrical and/or optical signals and at least one layer (215, 225) comprising a plurality of armor wires (220, 230) wound around the conductor core, and wherein the rope socket comprises: a housing having: an uphole end through which the armored cable extends into the housing; and a downhole end through which the conductor core extends from the housing, wherein the armor wires (220, 230) are arranged inside of the housing so that they are spaced apart at least locally from the conductor core; and characterized in further comprising a first spacer and a second spacer radially interposing the conductor core and the plurality of armor wires (220, 230) within the housing, wherein the first spacer is axially offset from the second spacer such that no portion of the second spacer radially overlaps any portion of the first spacer; and a plastic material disposed within the housing and filling interstices each defined by one or more surfaces of one or more of the conductor core, the first and second spacers (125,155), one or more of the armor wires (220, 230), and the housing 110). a housing having: an uphole end through which the armored cable extends into the housing; and a downhole end through which the conductor core extends from the housing, wherein the armor wires (220, 230) are arranged inside of the housing so that they are spaced apart at least locally from the conductor core; and characterized in further comprising an uphole end through which the armored cable extends into the housing; and a downhole end through which the conductor core extends from the housing, wherein the armor wires (220, 230) are arranged inside of the housing so that they are spaced apart at least locally from the conductor core; and characterized in further comprising a first spacer and a second spacer radially interposing the conductor core and the plurality of armor wires (220, 230) within the housing, wherein the first spacer is axially offset from the second spacer such that no portion of the second spacer radially overlaps any portion of the first spacer; and a plastic material disposed within the housing and filling interstices each defined by one or more surfaces of one or more of the conductor core, the first and second spacers (125,155), one or more of the armor wires (220, 230), and the housing 110).
A method for running a Discontinuous Reception, DRX, timer, applied to a scenario where a first Band Width Part, BWP, and a second BWP have different DRX parameters, the method comprising: determining a first DRX parameter corresponding to the first BWP; running a first DRX timer corresponding to the first BWP according to the first DRX parameter; and charatcerised by: allowing the first DRX timer in a running state to continue to be validated to the second BWP when the first BWP is switched to the second BWP. determining a first DRX parameter corresponding to the first BWP; running a first DRX timer corresponding to the first BWP according to the first DRX parameter; and charatcerised by: allowing the first DRX timer in a running state to continue to be validated to the second BWP when the first BWP is switched to the second BWP.
A sintered ferrite magnet comprising a main phase of an M type Sr ferrite having a hexagonal crystal structure, characterized in that an amount of Zn is 0.05 to 1.35 mass% in terms of ZnO, an amount of a rare-earth element is less than 0.005 mass% in terms of oxide, optionally an amount of Mn is less than 0.5 mass% in terms of MnO, optionally an amount of Na is 0.01 to 0.09 mass% in terms of Na 2 O, and the following Formula is satisfied, where a total amount of Sr, Ba and Ca is M3 in terms of mol, a total amount of Fe, Co, Mn, Zn, Cr and Al is M4 in terms of mol, and an amount of Si is M5 in terms of mol. 0.5 ≦ M 3 − M4/12 / M 5 ≦ 4.8
A method for characterizing a biomolecule parameter, said method comprising the steps of: providing a nanopore through a graphene-dielectric stack in a membrane, wherein said membrane separates a first fluid compartment from a second fluid compartment and said nanopore fluidly connects said first and said second fluid compartments; providing the biomolecule to said first fluid compartment; applying an electric field across said membrane; driving said biomolecule through said nanopore to said second fluid compartment under said applied electric field; and monitoring an electrical parameter across the membrane or along a plane formed by the membrane as the biomolecule transits the nanopore, thereby characterizing said biomolecule parameter characterized in that said graphene-dielectric stack comprises: a plurality of graphene layers, wherein adjacent graphene layers are separated by a dielectric layer. providing a nanopore through a graphene-dielectric stack in a membrane, wherein said membrane separates a first fluid compartment from a second fluid compartment and said nanopore fluidly connects said first and said second fluid compartments; providing the biomolecule to said first fluid compartment; applying an electric field across said membrane; driving said biomolecule through said nanopore to said second fluid compartment under said applied electric field; and monitoring an electrical parameter across the membrane or along a plane formed by the membrane as the biomolecule transits the nanopore, thereby characterizing said biomolecule parameter