mhurhangee/patent-ind-claim-en huggingface dataset:
Charging and docking station for telecommunications terminal equipment , with a platform on an upper level of the station with a multiplicity of successively arranged receptacles , each holding at least one telecommunications terminal , whereby underneath the platform a free space remains in the lower level of the station and in the receptacles slots are provided for supply cables and/or plug connectors for the telecommunications terminals between platform and free space , characterised in that the station has a housing for holding the platform and in the free space underneath the platform there is a distributor box to which the telecommunications terminals can be connected and can be connected to the mains supply via a common supply cable , whereby the housing has at least one opening for conducting the supply cables to the connection with the mains supply and the slots for the supply cables and/or plug connectors are provided on the underside of the receptacles .
A trawl door comprising a plurality of hydrofoils extending in parallel in a longitudinal direction of the hydrofoils and being arranged in an overlapping sequence so that one or more flow channels are formed between neighbouring hydrofoils , one or more shutters extending in the longitudinal direction of the plurality of hydrofoils and arranged at a pressure side of the plurality of hydrofoils , and drive means for rotating the one or more shutters about a pivoting axis extending in the longitudinal direction of the plurality of hydrofoils , wherein the drive means are arranged to rotate at least one of the shutters between a disengaged position and an engaged position, in which engaged position the at least one shutter substantially reduces or prevents a fluid flow through one or more of the flow channels during operation of the trawl door , said trawl door being characterized in that the shutters are orientated such that they, upon pivoting during operation of the trawl door , move substantially parallel to their own main surfaces such that water pressure forces are directed substantially perpendicular to the moving direction of the shutters . a plurality of hydrofoils extending in parallel in a longitudinal direction of the hydrofoils and being arranged in an overlapping sequence so that one or more flow channels are formed between neighbouring hydrofoils , one or more shutters extending in the longitudinal direction of the plurality of hydrofoils and arranged at a pressure side of the plurality of hydrofoils , and drive means for rotating the one or more shutters about a pivoting axis extending in the longitudinal direction of the plurality of hydrofoils , wherein the drive means are arranged to rotate at least one of the shutters between a disengaged position and an engaged position, in which engaged position the at least one shutter substantially reduces or prevents a fluid flow through one or more of the flow channels during operation of the trawl door , said trawl door being characterized in that the shutters are orientated such that they, upon pivoting during operation of the trawl door , move substantially parallel to their own main surfaces such that water pressure forces are directed substantially perpendicular to the moving direction of the shutters .
Device for measuring a relative humidity level inside the enclosure of a case of a watch , the device comprising: - an emitter module provided with a source of light radiation capable of emitting light beams through the crystal of said case towards the enclosure of said case , the emitter module comprises an element for modulating said source of light radiation configured such that said emitter module emits light beams capable of ensuring a generation of at least one acoustic signal by a gaseous fluid containing the water vapour contained in the enclosure of the case ; - a receiver module for receiving at least one acoustic signal from said enclosure , and - a control unit connected to said modules and which is configured to evaluate the water vapour content of a gaseous fluid contained inside said enclosure as a function of said at least one acoustic signal received by the receiver module . - an emitter module provided with a source of light radiation capable of emitting light beams through the crystal of said case towards the enclosure of said case , the emitter module comprises an element for modulating said source of light radiation configured such that said emitter module emits light beams capable of ensuring a generation of at least one acoustic signal by a gaseous fluid containing the water vapour contained in the enclosure of the case ; - a receiver module for receiving at least one acoustic signal from said enclosure , and - a control unit connected to said modules and which is configured to evaluate the water vapour content of a gaseous fluid contained inside said enclosure as a function of said at least one acoustic signal received by the receiver module .
A method of fabricating a polishing pad, the method comprising: mixing a pre-polymer and a chain extender or cross-linker with a plurality of unexpanded microelements and a plurality of pre-expanded microelements to form a mixture, each of the plurality of unexpanded microelements having an initial size; and heating the mixture in a formation mold to provide a molded polishing body comprising a thermoset polyurethane material and a first plurality of closed cell pores and a second plurality of closed cell pores dispersed in the thermoset polyurethane material, the first plurality of closed cell pores formed by expanding each of the plurality of unexpanded microelements to a final, larger size during the heating, wherein the heating is performed at a temperature sufficiently low such that a size of each of the plurality of pre-expanded microelements is essentially the same before and after the heating to provide the second plurality of closed cell pores in the molded polishing body. mixing a pre-polymer and a chain extender or cross-linker with a plurality of unexpanded microelements and a plurality of pre-expanded microelements to form a mixture, each of the plurality of unexpanded microelements having an initial size; and heating the mixture in a formation mold to provide a molded polishing body comprising a thermoset polyurethane material and a first plurality of closed cell pores and a second plurality of closed cell pores dispersed in the thermoset polyurethane material, the first plurality of closed cell pores formed by expanding each of the plurality of unexpanded microelements to a final, larger size during the heating, wherein the heating is performed at a temperature sufficiently low such that a size of each of the plurality of pre-expanded microelements is essentially the same before and after the heating to provide the second plurality of closed cell pores in the molded polishing body.
A method of manufacturing a sack paper having a Gurley porosity (ISO 5636-5) of less than 15 s, comprising the steps of: a) providing a pulp having a Kappa number (SCAN-C 1:00) of 15-40; b) subjecting the pulp to high consistency (HC) refining and optionally low consistency (LC) refining to obtain refined pulp, wherein the energy supply of the LC refining is less than 120 kWh/ton paper ; and c) forming the sack paper from said pulp mixture, wherein the amount of starch added in the method is 1-5 kg/ton paper and the amount of hydrophobic size added in the method is less than 2 kg/ton. a) providing a pulp having a Kappa number (SCAN-C 1:00) of 15-40; b) subjecting the pulp to high consistency (HC) refining and optionally low consistency (LC) refining to obtain refined pulp, wherein the energy supply of the LC refining is less than 120 kWh/ton paper ; and c) forming the sack paper from said pulp mixture,
An electrolyte composition comprising: an alkali metal salt in the form of LiN(FSO 2 ) 2 ; at least one polymer selected from the group consisting of a polyether polymer, a (meth)acrylic polymer, a nitrile polymer, and a fluoropolymer; and an ion dissociation accelerator, the composition having an alkali metal salt concentration of 1.8 mol/kg or higher. an alkali metal salt in the form of LiN(FSO 2 ) 2 ; at least one polymer selected from the group consisting of a polyether polymer, a (meth)acrylic polymer, a nitrile polymer, and a fluoropolymer; and an ion dissociation accelerator, the composition having an alkali metal salt concentration of 1.8 mol/kg or higher.
A drill pipe expansion assembly for expansion of a completion component located at a fixed position in a well having a longitudinal axis , the drill pipe expansion assembly comprising: - an expansion unit which is moveable in relation to the completion component, comprising: - a tubular element having a certain length, where the length of the tubular element comprises a plurality of drill pipe sections , the tubular element comprising a first end and a second end , and a wall having an outer face and an outlet for ejection of pressurised fluid, and - a first sealing element and a second sealing element arranged on the outer face on each side of the outlet, and - a positioning unit comprising a body and a first fixation element movable between a projected position and a retracted position in relation to the body, the positioning unit being connected with the tubular element in order to maintain the expansion unit in a fixed position in relation to the completion component during expansion. - an expansion unit which is moveable in relation to the completion component, comprising: - a tubular element having a certain length, where the length of the tubular element comprises a plurality of drill pipe sections , the tubular element comprising a first end and a second end , and a wall having an outer face and an outlet for ejection of pressurised fluid, and - a first sealing element and a second sealing element arranged on the outer face on each side of the outlet, and - a positioning unit comprising a body and a first fixation element movable between a projected position and a retracted position in relation to the body, the positioning unit being connected with the tubular element in order to maintain the expansion unit in a fixed position in relation to the completion component during expansion. - a tubular element having a certain length, where the length of the tubular element comprises a plurality of drill pipe sections , the tubular element comprising a first end and a second end , and a wall having an outer face and an outlet for ejection of pressurised fluid, and - a first sealing element and a second sealing element arranged on the outer face on each side of the outlet, and - a positioning unit comprising a body and a first fixation element movable between a projected position and a retracted position in relation to the body, the positioning unit being connected with the tubular element in order to maintain the expansion unit in a fixed position in relation to the completion component during expansion.
Hydraulic braking device for testing industrial screwdrivers, said braking device being arranged on a braking simulation bench, said braking device being controlled by an actuator and by a hydraulic control circuit which supplies pressure to the device on the basis of the indications of an electronic elaboration unit (U) of said bench, said braking device being provided with coupling means (A) for said screwdriver to be subjected to test and with measurement transducers (TR) connected to an electronic driver board (SP), said electronic elaboration unit (U) communicates with said board and comprises a suitable driving program stored thereon suitable for measuring the torque exerted by the screwdriver and the rotation angle during the test, characterized in that said device comprises an internal memory which can be read and/or written by the electronic elaboration unit (U) of said bench said internal memory comprising identification data of the brake, calibration data, and historical data, in which in an initialization step said data are written to said memory from said electronic elaboration unit (U) and, then when a braking device is suggested for a test, said elaboration unit is able to pulls said data from the memory for correct operation. said braking device being controlled by an actuator and by a hydraulic control circuit which supplies pressure to the device on the basis of the indications of an electronic elaboration unit (U) of said bench, said braking device being provided with coupling means (A) for said screwdriver to be subjected to test and with measurement transducers (TR) connected to an electronic driver board (SP), said electronic elaboration unit (U) communicates with said board and comprises a suitable driving program stored thereon suitable for measuring the torque exerted by the screwdriver and the rotation angle during the test, characterized in that said device comprises an internal memory which can be read and/or written by the electronic elaboration unit (U) of said bench said internal memory comprising identification data of the brake, calibration data, and historical data, in which in an initialization step said data are written to said memory from said electronic elaboration unit (U) and, then when a braking device is suggested for a test, said elaboration unit is able to pulls said data from the memory for correct operation.
An apparatus, comprising: a solvent permeable transfer substrate having a first surface and a second surface opposite the first surface; an ejector configured to eject a droplet comprising at least solvent onto the first surface of the transfer substrate; a reservoir comprising a draw solution and configured to place the draw solution in contact with the second surface of the transfer substrate; and a print substrate configured to contact a portion of the first surface of the transfer substrate. a solvent permeable transfer substrate having a first surface and a second surface opposite the first surface; an ejector configured to eject a droplet comprising at least solvent onto the first surface of the transfer substrate; a reservoir comprising a draw solution and configured to place the draw solution in contact with the second surface of the transfer substrate; and a print substrate configured to contact a portion of the first surface of the transfer substrate.
An immunochromatography analysis device for detecting gliadin, including a sample addition part, a labeling substance retaining part, a chromatography medium part having a detection part and an absorption part, wherein the labeling substance retaining part contains a first antibody recognizing α-gliadin and the detection part contains a second antibody recognizing α-gliadin, wherein the first and second antibody are the same, and the first antibody binds to any of the repeated sequences present in α-gliadin and the second antibody binds to the same repeated sequence which is present at a different site from the site to which the first antibody bound; wherein the first and second antibody are monoclonal antibodies, and the first and second antibody recognize at least one amino acid sequence of the five amino acid sequences of SEQ ID NOs: 2 to 6 which are present in the whole amino acid sequence of α-gliadin; wherein the amount of antibody in the labelling substance retaining part is from 0.01 μg/device to 1.0 μg/device. wherein the labeling substance retaining part contains a first antibody recognizing α-gliadin and the detection part contains a second antibody recognizing α-gliadin, wherein the first and second antibody are the same, and the first antibody binds to any of the repeated sequences present in α-gliadin and the second antibody binds to the same repeated sequence which is present at a different site from the site to which the first antibody bound; wherein the first and second antibody are monoclonal antibodies, and the first and second antibody recognize at least one amino acid sequence of the five amino acid sequences of SEQ ID NOs: 2 to 6 which are present in the whole amino acid sequence of α-gliadin; wherein the amount of antibody in the labelling substance retaining part is from 0.01 μg/device to 1.0 μg/device.
A set of essentially identical floor panels provided with a mechanical locking system comprising a strip extending horizontally from a lower part of a first edge of a first panel and a downwardly open locking groove formed in an adjacent second edge of a second panel , the strip comprising an upwardly protruding locking element which is configured to cooperate with the locking groove for locking the first edge and the second edge in a horizontal direction parallel to a main plane of the panels and in a vertical direction perpendicularly to the horizontal direction, wherein the locking element and the locking groove comprise an upper and a lower locking surface which are configured to lock the panels vertically, wherein the strip comprises slits located along the first edge, a slit wall is configured to be bent horizontally inwardly towards an inner part of the first panel during locking, the locking system in a locked position and along the edges comprises a first rigid edge section and a second flexible edge section comprising one of the slits , and the first rigid edge section is configured such that the locking element is in contact with the locking groove and the second flexible edge section is configured such that there is a space (S) between an inner surface of the locking element and an outer groove wall of the locking groove , characterized in that the upper locking surface is provided in the second flexible edge section and the upper locking surface is removed in the first rigid edge section . the strip comprises slits located along the first edge, a slit wall is configured to be bent horizontally inwardly towards an inner part of the first panel during locking, the locking system in a locked position and along the edges comprises a first rigid edge section and a second flexible edge section comprising one of the slits , and the first rigid edge section is configured such that the locking element is in contact with the locking groove and the second flexible edge section is configured such that there is a space (S) between an inner surface of the locking element and an outer groove wall of the locking groove , characterized in that the upper locking surface is provided in the second flexible edge section and the upper locking surface is removed in the first rigid edge section .
A polyurethane curable composition comprising a polyol (A) and a polyisocyanate (B) as an essential component, wherein the composition comprises polymer fine particles (C) having a core-shell structure including at least two layers which are a core layer and a shell layer, the polymer fine particles (C) are contained in an amount of 1 to 150 parts by mass per 100 parts by mass of a total amount of the polyol (A) and the polyisocyanate (B), the core layer has a glass transition temperature (Tg) of more than 0 °C as calculated by the following numerical formula , a cured product formed by the curable composition has an elongation of more than 47 % at a maximum tensile stress, 1 / Tg = ∑ M i / Tg i wherein M i represents a weight fraction of a non-crosslinking monomer i constituting the core layer of the polymer fine particles, Tg i represents a glass transition temperature (K) of a homopolymer of the non-crosslinking monomer i, and i represents an integer of 1 or more wherein the polyol (A) has an average hydroxyl value of 1 to 300 mgKOH/g. the polymer fine particles (C) are contained in an amount of 1 to 150 parts by mass per 100 parts by mass of a total amount of the polyol (A) and the polyisocyanate (B), the core layer has a glass transition temperature (Tg) of more than 0 °C as calculated by the following numerical formula , a cured product formed by the curable composition has an elongation of more than 47 % at a maximum tensile stress, 1 / Tg = ∑ M i / Tg i wherein M i represents a weight fraction of a non-crosslinking monomer i constituting the core layer of the polymer fine particles, Tg i represents a glass transition temperature (K) of a homopolymer of the non-crosslinking monomer i, and i represents an integer of 1 or more wherein the polyol (A) has an average hydroxyl value of 1 to 300 mgKOH/g.
An attachable surface cover for a USB port, comprising a casing and a base plate , wherein the casing has an attachment component ; the casing can be attached to a piece of cloth by means of the attachment component penetrating through the cloth so that the cloth is clamped between the casing and the base plate, and the attachment component is detachably connected to the base plate ; the attachable surface cover for a USB port has a plug hole for insertion and removal of a USB cable, and an entrance of the plug hole is on the casing ; and the USB port entering the plug hole via an exit of the plug hole and being fixed in the plug hole , characterized in that several second friction bulges are formed in a protruding manner on the base plate , such that when the attachment component penetrates through the cloth and then is mounted on the base plate , the second friction bulges abut against the cloth .
An oral treatment device comprising: a head for use in treating an oral cavity of a user; an inertial measurement unit, IMU , configured to generate signals dependent on position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user; and a controller configured to: process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device ; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device , and control the oral treatment device to perform the action based on the identified tooth. a head for use in treating an oral cavity of a user; an inertial measurement unit, IMU , configured to generate signals dependent on position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user; and a controller configured to: process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device ; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device , and control the oral treatment device to perform the action based on the identified tooth. process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device ; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device , and control the oral treatment device to perform the action based on the identified tooth. process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device , and control the oral treatment device to perform the action based on the identified tooth.