mhurhangee/ep-ind-claims huggingface dataset:
A formwork element having theft protection, wherein a base layer forms at least one surface of said formwork element, wherein at least one signal module is provided for communicating with at least one base station, said base layer being watertight, and wherein an at least partially porous, concrete-repellent separating layer is disposed above the base layer and said separating layer comprises a smooth surface configured to face towards hardening concrete, characterized in that said separating layer comprising pores formed such that the pores can take up a separating agent emerging on the smooth surface, thereby allowing simple and clean dismantling and that a separating agent reservoir layer, in which the separating agent is stored to be delivered to the separating layer, is arranged between said base layer and said separating layer, said separating agent reservoir layer being formed such that, after some dismantling events, more separating agent can continue to diffuse from the separating agent reservoir layer into the separating layer to replace the separating agent that was consumed.
A method for configuring Channel State Information feedback signalings, comprising: a base station configuring N Channel State Information, CSI, measurement processes used for measuring and feeding back CSI for a terminal, wherein, each CSI measurement process corresponds to a combination of one CSI process and one subframe set, wherein, each CSI process is configured with subframe set information, and divided into two CSI measurement processes, a first CSI measurement process corresponding to a combination of the CSI process and a first subframe set in the subframe set information, and a second CSI measurement process corresponding to a combination of the CSI process and a second subframe set in the subframe set information, wherein, each of the N CSI measurement processes is independently configured through a terminal dedicated higher layer signaling with a codebook subset restriction, codebookSubsetRestriction, and one or more of the following: RI feedback according to reference process, PMI feedback according to reference process, a resource location of feed-back carried by Physical Uplink Control Channel, PUCCH, corresponding to CSI measurement process, an initialization sequence Identifier, ID, of PUCCH corresponding to CSI measurement process, so that different CSI measurement processes have different or same configurations; and the base station sending the N CSI measurement processes to the terminal, wherein N is a positive integer. a base station configuring N Channel State Information, CSI, measurement processes used for measuring and feeding back CSI for a terminal, wherein, each CSI measurement process corresponds to a combination of one CSI process and one subframe set, wherein, each CSI process is configured with subframe set information, and divided into two CSI measurement processes, a first CSI measurement process corresponding to a combination of the CSI process and a first subframe set in the subframe set information, and a second CSI measurement process corresponding to a combination of the CSI process and a second subframe set in the subframe set information, wherein, each of the N CSI measurement processes is independently configured through a terminal dedicated higher layer signaling with a codebook subset restriction, codebookSubsetRestriction, and one or more of the following: RI feedback according to reference process, PMI feedback according to reference process, a resource location of feed-back carried by Physical Uplink Control Channel, PUCCH, corresponding to CSI measurement process, an initialization sequence Identifier, ID, of PUCCH corresponding to CSI measurement process, so that different CSI measurement processes have different or same configurations; and the base station sending the N CSI measurement processes to the terminal, wherein N is a positive integer.
A reloadable auto injector for adrenaline injection, the auto injector having a housing for accommodation of a syringe with a needle, the syringe being movably positioned in the housing between a first position in which position the needle is accommodated inside the housing and a second position in which position the needle protrudes outside the housing, a plunger rod configured to be advanced in the syringe for delivering at least one dose of medicament, a plunger rod tube having two or more deflectable locking members configured to interact with a plunger rod stop to normally lock the plunger rod to the plunger rod tube, a syringe driver configured to apply a force to the syringe thereby moving the syringe from the first position to the second position, the syringe driver being further configured to advance the plunger rod tube with the plunger rod to the second position, a plunger rod driver being configured to apply a force to the plunger rod to advance the plunger rod in the syringe for delivering one dose of medicament upon unlocking of each of the two or more deflectable locking members (1108, 1110), a reload mechanism configured to retract the syringe from the second position to the first position and reload the syringe driver to allow a repeated activation of the syringe driver, wherein the reload mechanism is configured to unlock a first deflectable locking member of the two or more deflectable locking members upon a first movement of the syringe from the first position to the second position to thereby release the plunger rod from the plunger rod tube for delivering a first dose of medicament, and unlock a further deflectable locking member of the two or more deflectable locking members upon a further movement of the syringe from the first position to the second position to thereby release the plunger rod from the plunger rod tube for delivering a further dose of medicament, the auto injector further comprising a reload handle configured to reload the auto injector for injecting a further dose of medicament, wherein the reload handle has a first opening configured to be aligned with the first deflectable locking member when the plunger rod tube is advanced to the second position a first time and a further opening configured to be aligned with the further deflectable locking member when the plunger rod tube is advanced to the second position a further time.
An oral cavity washing device, comprising: a device body that a pump is built in; a tank detachably attached to the device body, the tank comprising a storage unit for storing liquid to be supplied to the device body, wherein the tank includes a bottom wall, at least a part of the bottom wall being formed to be openable, and the tank comprises a tubular body and the bottom wall detachably attached to the tubular body, and an attachment portion that holds an attached state between the tubular body and the bottom wall is formed between the tubular body and the bottom wall, wherein the attachment portion comprises a plurality of attachment projections protruding from a lower part of an inner peripheral surface of the tubular body, and a plurality of attachment recesses provided on an outer peripheral surface of the bottom wall, each attachment projection extends in a circumferential direction of the tubular body and comprises an engaging recess on its outer surface, each attachment recess comprises an engagement projection protruding on its bottom side and being engageable with the engagement recess of the attachment projection, opening lengths of the plurality of attachment recesses correspond to extending lengths of the plurality of attachment projections in the circumferential direction, and in the attachment portion, the bottom wall is configured to be relatively rotated with respect to the tubular body to release holding of the attached state between the tubular body and the bottom wall. a device body that a pump is built in; a tank detachably attached to the device body, the tank comprising a storage unit for storing liquid to be supplied to the device body, wherein the tank includes a bottom wall, at least a part of the bottom wall being formed to be openable, and the tank comprises a tubular body and the bottom wall detachably attached to the tubular body, and an attachment portion that holds an attached state between the tubular body and the bottom wall is formed between the tubular body and the bottom wall, wherein the attachment portion comprises a plurality of attachment projections protruding from a lower part of an inner peripheral surface of the tubular body, and a plurality of attachment recesses provided on an outer peripheral surface of the bottom wall, each attachment projection extends in a circumferential direction of the tubular body and comprises an engaging recess on its outer surface, each attachment recess comprises an engagement projection protruding on its bottom side and being engageable with the engagement recess of the attachment projection, opening lengths of the plurality of attachment recesses correspond to extending lengths of the plurality of attachment projections in the circumferential direction, and in the attachment portion, the bottom wall is configured to be relatively rotated with respect to the tubular body to release holding of the attached state between the tubular body and the bottom wall.
A system for separating a target gas from a liquid, said system comprising: a housing defining a chamber, and a composite membrane separating said chamber into a permeate side and a retentate side, said housing having an inlet and an outlet opening to said retentate side of said chamber, and a gas port opening to said permeate side of said chamber, said composite membrane being capable of separating the target gas from the liquid, and including a fabric comprising a non-woven array of intermingled carbon nanotubes having a diameter in the range 1 to 100 nanometers and a length in the range 0.001 to 10mm, wherein said composite membrane includes a polymer incorporated with said fabric to an extent sufficient to form a nonporous, gas permeable composite with said fabric; wherein said composite membrane exhibits a permeance of at least 7.5x10 -8 cm/s ∗ kPa (0.1 GPU) to the target gas, wherein the permeance is measured by the method described herein; and wherein the nonporous permeable composite membrane is substantially free from open pathways extending continuously from one side of the composite to the other side, and free from luminal pathways defined by the carbon nanotubes which extend through the composite membrane.
A medical wire comprising a conductive wire body and an intracorporeally indwelling member connected to the leading end part of the conductive wire body through a thermally-fusible connecting member, in which the connecting member is configured to be heated and fused by supplying an electric current for fusion through the conductive wire body, thereby releasing the intracorporeally indwelling member, wherein a non-conductive coating film is formed on an external peripheral surface of an electrode-forming portion in the leading end part of the wire body, and a part of the surface of the wire body is exposed through the coating film, thereby forming a heating electrode portion, characterized in that the heating electrode portion is formed by a plurality of fine cutout portions formed in the coating film.
An oriented strand board, OSB, product such as a panel, formed from a plurality of layers pressed together to form the product, said plurality of layers comprising a top layer, a core layer and a bottom layer, each layer comprising a mixture of wood flakes and wood fines, wherein the volume ratio of wood fines to wood flakes is from 28% to 35% in the top layer and bottom layer and wherein the volume ratio of wood fines to wood flakes is from 20% to 25% in the core layer; the product further comprising a water vapour resistant coating, such that the air permeability of the formed product, tested in accordance with EN 12114:2000 at 50 Pa is between 0.0005 and 0.0018 m 3 /m 2 /h/Pa wherein the dimensions of the wood fines is less than about 5% of the longest wood flake dimension in the mixture.
An exhaust gas thermal enhancer to be installed to gas pipe for increasing the temperature in dual fuel systems to start the reaction of removing methane from gas fluid comprising exhaust gas or equivalent gas fluid (FLUID) comprising methane from a dual fuel engine, wherein said exhaust gas thermal enhancer comprises at least one front heater for heating said gas fluid (FLUID) and upstream to said front heater there is at least one fuel injector for injecting fuel (FUEL) and at least one fuel vaporizer is integrated to said fuel injector, and at least one fuel mixer is integrated to said fuel injector and to said vaporizer, and that downstream to said front heater there is at least one oxidation catalyst (OC1, OC2) for catalyzing the oxidation of methane, wherein the front heater is a front heating catalyst arranged to catalyze oxidation of components of injected fuel (FUEL) and/or gas fluid (FLUID), said gas fluid (FLUID) is arranged to flow through said front heater, and wherein amount of injected fuel (FUEL) is adjusted so that the temperature of the gas fluid (FLUID) is raised to 350-400 °C in oxidation catalyst(s) (OC1, OC2) for oxidation of methane.
System with a device for simulating a flying real target to be hit by an active system, comprising: a target, an actuator for moving the target, and a control unit connected to the actuator, the control unit being adapted to generate by means of the actuator a movement and/or a position of the target effected during a flight of the real target, characterised in that the system has a container enclosing the device, wherein the container has an aperture through which the target can be shot at, and the system furthermore has a protection region which is disposed around the aperture of the container and absorbs the energy of the active system. a target, an actuator for moving the target, and a control unit connected to the actuator, the control unit being adapted to generate by means of the actuator a movement and/or a position of the target effected during a flight of the real target, characterised in that the system has a container enclosing the device, wherein the container has an aperture through which the target can be shot at, and the system furthermore has a protection region which is disposed around the aperture of the container and absorbs the energy of the active system.
Forming machine for spinning / flow forming of a workpiece, having - a machine bed, - a headstock, - a main spindle rotatably mounted on the headstock, with a flow forming mandrel which is provided to receive the workpiece, - a support which carries at least one machining tool and which is axially displaceable relative to the main spindle in a longitudinal direction of the machine bed, - a main spindle drive for driving in rotation the main spindle and - a feed drive for displacing the support, characterised in that the main spindle drive has at least two drive motors, each with a drive pinion, and that the main spindle has at least one driving gear, which can be driven by the drive pinions of the drive motors. - a machine bed, - a headstock, - a main spindle rotatably mounted on the headstock, with a flow forming mandrel which is provided to receive the workpiece, - a support which carries at least one machining tool and which is axially displaceable relative to the main spindle in a longitudinal direction of the machine bed, - a main spindle drive for driving in rotation the main spindle and - a feed drive for displacing the support,
A method of monitoring the operation of a system comprising a first rotary machine, a second rotary machine, and a flexible coupling device for transmitting rotation from a first shaft of the first rotary machine to a second shaft of the second rotary machine, wherein the flexible coupling device comprises on a first side a first hub and on a second side a second hub, the method comprising the steps of: a) connecting the first hub to a first stub of a first shaft, b) connecting the second hub to a second stub of a second shaft, c) detecting the rotation angle between at least two components selected between the first hub, the second hub, the first stub, the second stub, and characterised in d) monitoring the system to determine when the rotation angle exceeds a threshold corresponding to a slippage between at least two components selected between the first hub, the second hub, the first stub and the second stub. a) connecting the first hub to a first stub of a first shaft, b) connecting the second hub to a second stub of a second shaft, c) detecting the rotation angle between at least two components selected between the first hub, the second hub, the first stub, the second stub, and characterised in d) monitoring the system to determine when the rotation angle exceeds a threshold corresponding to a slippage between at least two components selected between the first hub, the second hub, the first stub and the second stub.
A method of rehabilitation of a ballast bed of a track, wherein an upper, reusable bedding layer is picked up by a first clearing device - with regard to a working direction - and subjected to cleaning, while parallel thereto a lower bedding layer adjoining the upper bedding layer is picked up and disposed of by a second clearing device following behind, thus creating an earth formation, wherein gravel accruing during the cleaning process is recycled as a gravel layer discharged upon the earth formation, characterized by the following features: a) gravel which has been screened out from reusable ballast as a result of a first cleaning operation of the upper ballast layer is discharged upon the earth formation to the rear of the second clearing device, with regard to the working direction, and graded and compacted for producing the gravel layer, b) parallel thereto, residual gravel accruing as a result of further cleaning operations of the reusable ballast picked up by the first clearing device is discharged upon the track in front of the first clearing device, in the working direction, and picked up by the first clearing device in connection with the upper bedding layer. a) gravel which has been screened out from reusable ballast as a result of a first cleaning operation of the upper ballast layer is discharged upon the earth formation to the rear of the second clearing device, with regard to the working direction, and graded and compacted for producing the gravel layer, b) parallel thereto, residual gravel accruing as a result of further cleaning operations of the reusable ballast picked up by the first clearing device is discharged upon the track in front of the first clearing device, in the working direction, and picked up by the first clearing device in connection with the upper bedding layer.
Method for serially transmitting data in a bus system having at least two participating data processing units which interchange messages via the bus, the transmitted messages having a logical structure according to the CAN standard ISO 11898-1, the logical structure comprising a start-of-frame bit, an arbitration field, a control field, a data field, a CRC field, an acknowledge field and an end-of-frame sequence, the control field comprising a data length code containing an item of information relating to the length of the data field, characterized in that the CRC field of transmitted messages may have at least two different numbers of bits depending on the content of the data length code, wherein, at the beginning of a message, the calculation of at least two CRC checksums is started in a parallel manner using different generator polynomials.
A process for the preparation of glycols from a saccharide-containing feedstock comprising the steps of: (a) preparing a reaction mixture in a reactor vessel comprising the saccharide-containing feedstock, a solvent, a catalyst component with retro-aldol catalytic capabilities comprising one or more compound, complex or elemental material selected from the group comprising tungsten, molybdenum, vanadium, niobium, chromium, titanium and zirconium and a first hydrogenation catalyst comprising an element selected from groups 8, 9 and 10 of the periodic table; (b) supplying hydrogen gas to the reaction mixture in the reactor vessel; (c) monitoring the hydrogenation activity in the reactor vessel; (d) preparing a second hydrogenation catalyst by contacting in a reactor a catalyst precursor comprising a metal salt or a metal complex of one or more elements selected from chromium and groups 8, 9, 10 and 11 of the periodic table with hydrazine to convert the catalyst precursor into the second hydrogenation catalyst; and (e) when the hydrogenation activity declines, supplying the second hydrogenation catalyst to the reactor vessel to supplement the declined hydrogenation activity in the reactor vessel. (a) preparing a reaction mixture in a reactor vessel comprising the saccharide-containing feedstock, a solvent, a catalyst component with retro-aldol catalytic capabilities comprising one or more compound, complex or elemental material selected from the group comprising tungsten, molybdenum, vanadium, niobium, chromium, titanium and zirconium and a first hydrogenation catalyst comprising an element selected from groups 8, 9 and 10 of the periodic table; (b) supplying hydrogen gas to the reaction mixture in the reactor vessel; (c) monitoring the hydrogenation activity in the reactor vessel; (d) preparing a second hydrogenation catalyst by contacting in a reactor a catalyst precursor comprising a metal salt or a metal complex of one or more elements selected from chromium and groups 8, 9, 10 and 11 of the periodic table with hydrazine to convert the catalyst precursor into the second hydrogenation catalyst; and (e) when the hydrogenation activity declines, supplying the second hydrogenation catalyst to the reactor vessel to supplement the declined hydrogenation activity in the reactor vessel.
A process for pickling a strip of ferritic stainless steel comprising: treating the steel with a first mixture disposed in a first tub, the first mixture comprising H 2 SO 4, an excess of at least one oxidizing agent, wherein the at least one oxidizing agent serves to convert a total amount of ferrous sulfate to ferric sulfate (Fe 2 (SO 4) 3), and applying a current to the steel, wherein the first mixture does not include HF. treating the steel with a first mixture disposed in a first tub, the first mixture comprising H 2 SO 4, an excess of at least one oxidizing agent, wherein the at least one oxidizing agent serves to convert a total amount of ferrous sulfate to ferric sulfate (Fe 2 (SO 4) 3), and applying a current to the steel, wherein the first mixture does not include HF.
A nonaqueous serum capable of reducing the drying time of wet hair, comprising: about 55 to about 65 percent by weight of cyclopentasiloxane; about 30 to about 40 percent by weight of a silicone elastomer comprising a dimethicone crosspolymer in dimethicone; about 0.5 to about 1.5 percent by weight of ppg-3 benzyl ether myristate; and about 0.001 to about 0.10 percent by weight of a sodium laneth 40-maleate/styrene sulfonate copolymer, and wherein the serum has a density of about 1.02 g/ml. about 55 to about 65 percent by weight of cyclopentasiloxane; about 30 to about 40 percent by weight of a silicone elastomer comprising a dimethicone crosspolymer in dimethicone; about 0.5 to about 1.5 percent by weight of ppg-3 benzyl ether myristate; and about 0.001 to about 0.10 percent by weight of a sodium laneth 40-maleate/styrene sulfonate copolymer, and wherein the serum has a density of about 1.02 g/ml.