mhurhangee/ep-ind-claims huggingface dataset:
Order indication device for use in restaurants, inns and the like, wherein the order indication device comprises an input device which can be actuated by a guest, a communication interface, a memory, a movement detector which detects whether the order indication device is moved, optical indication means and a control unit, wherein the optical indication means comprises one or more first light sources and one or more second light sources, wherein the setting of the brightness of the one or more first light sources and the setting of the brightness of the one or more second light sources depend on an environmental condition, wherein the input device is operatively connected to the optical indication means via the control unit such that the optical indication means, after its activation by the input device, signals the actuation process of the input device by means of an optical signal, wherein the optical indication means, after its activation, outputs a continuous optical signal which can be deactivated, wherein the order indication device further includes a means for detecting the time elapsed since the activation of the continuous optical signal, wherein the order indication device is configured to output an alarm signal in the event of an attempt to steal the order indication device, wherein the output of the alarm signal takes place in stages, wherein, if the movement detector sends a signal to the control unit for more than a first threshold period, the control unit initiates a first one of the stages, and if the movement detector sends the signal to the control unit for more than a second threshold period, the control unit initiates a second one of the stages. wherein the input device is operatively connected to the optical indication means via the control unit such that the optical indication means, after its activation by the input device, signals the actuation process of the input device by means of an optical signal, wherein the optical indication means, after its activation, outputs a continuous optical signal which can be deactivated, wherein the order indication device further includes a means for detecting the time elapsed since the activation of the continuous optical signal, wherein the order indication device is configured to output an alarm signal in the event of an attempt to steal the order indication device, wherein the output of the alarm signal takes place in stages, wherein, if the movement detector sends a signal to the control unit for more than a first threshold period, the control unit initiates a first one of the stages, and if the movement detector sends the signal to the control unit for more than a second threshold period, the control unit initiates a second one of the stages.
Brake caliper for a disk brake, having a tensioning side and a rim side, comprising: a. a brake cylinder flange face which for receiving a brake cylinder is disposed on the tensioning side, b. a first sliding bush and a second sliding bush for the axial displacement of the brake caliper on a brake support, c. two flange faces (8, 8a) which for receiving a sensor resetting unit are disposed in an axially parallel manner on the tensioning side between the first sliding bush and the second sliding bush, characterized in that the brake caliper on the tensioning side between the first sliding bush and the flange face, in a manner radially counter to the direction of the brake cylinder flange face, has a first rib and/or between the second sliding bush and the flange face has a second rib, wherein the flange faces (8, 8a) for receiving the sensor restoring unit in a manner axially counter to a rim side of the brake caliper project in relation to a brake caliper housing and the first rib and/or the second rib, and wherein the first rib or the second rib is disposed at an axial spacing from the sensor resetting unit. a. a brake cylinder flange face which for receiving a brake cylinder is disposed on the tensioning side, b. a first sliding bush and a second sliding bush for the axial displacement of the brake caliper on a brake support, c. two flange faces (8, 8a) which for receiving a sensor resetting unit are disposed in an axially parallel manner on the tensioning side between the first sliding bush and the second sliding bush, characterized in that the brake caliper on the tensioning side between the first sliding bush and the flange face, in a manner radially counter to the direction of the brake cylinder flange face, has a first rib and/or between the second sliding bush and the flange face has a second rib, wherein the flange faces (8, 8a) for receiving the sensor restoring unit in a manner axially counter to a rim side of the brake caliper project in relation to a brake caliper housing and the first rib and/or the second rib, and
A high-output lithium secondary battery comprising: a cathode comprising, as cathode active materials, a first cathode active material represented by Formula 1 below and having a layered structure and a second cathode active material represented by Formula 2 below and having a spinel structure, wherein an amount of the second cathode active material is between 40 and 100 wt% based on a total weight of the first and second cathode active materials; an anode comprising amorphous carbon having a capacity of 300 mAh/g or more; and a separator, and wherein the amorphous carbon is a mixture of a first carbon having a specific surface area of 0.01 to 0.031 m 2 /mAh with respect to capacity and a second carbon having a specific surface area of 0.0035 to 0.017 m 2 /mAh with respect to capacity: Li x (Ni v Mn w Co y M z)O 2-t A t wherein 0.8<x≤1.3, 0≤v≤0.9, 0≤w≤0.9, 0≤y≤0.9, 0≤z≤0.9, x+v+w+y+z=2, and 0≤t < 0.2; M refers to at least one metal or transition metal cation having an oxidation number of +2 to +4; and A is a monovalent or divalent anion, Li a Mn 2-b M' b O 4-c A' c wherein 0.8 < a≤1.3, 0≤b≤0.5, and 0≤c≤0.3; M' refers to at least one metal or transition metal cation having an oxidation number of + 2 to +4; and A' is a monovalent or divalent anion wherein 0.8<x≤1.3, 0≤v≤0.9, 0≤w≤0.9, 0≤y≤0.9, 0≤z≤0.9, x+v+w+y+z=2, and 0≤t < 0.2; M refers to at least one metal or transition metal cation having an oxidation number of +2 to +4; and A is a monovalent or divalent anion, wherein 0.8 < a≤1.3, 0≤b≤0.5, and 0≤c≤0.3; M' refers to at least one metal or transition metal cation having an oxidation number of + 2 to +4; and A' is a monovalent or divalent anion
A method for the analysis of individual biological cells, comprising the steps: (a) applying the cells to a support plate by gentle centrifuging, wiping or sedimentation; (b) recording an image of the applied cells by optical means and determining the position coordinates of the cells from the image; (c) covering the support plate with a layer of crystals of matrix material by depositing and drying a mist of matrix solution after which the cells are no longer visible; (d) acquiring individual mass spectra of at least a part of the individual cells utilizing the position coordinates, with ionization of the cell constituents by matrix assisted laser desorption; and (e) evaluating the mass spectra to determine types, states or other characteristic features of the individual cells. (a) applying the cells to a support plate by gentle centrifuging, wiping or sedimentation; (b) recording an image of the applied cells by optical means and determining the position coordinates of the cells from the image; (c) covering the support plate with a layer of crystals of matrix material by depositing and drying a mist of matrix solution after which the cells are no longer visible; (d) acquiring individual mass spectra of at least a part of the individual cells utilizing the position coordinates, with ionization of the cell constituents by matrix assisted laser desorption; and (e) evaluating the mass spectra to determine types, states or other characteristic features of the individual cells.
A modified substrate comprising: a porous or microporous polymer substrate having a surface, and a functionalized polymer coated on the surface of the substrate and comprising a functional component A and a cross-linking component B, the cross-linking component B including a plurality of nitrene precursors, wherein the substrate being a structure selected from the group consisting of film, hollow fiber, fiber, textile, membrane, porous membrane, microporous membrane, and battery separator. a porous or microporous polymer substrate having a surface, and a functionalized polymer coated on the surface of the substrate and comprising a functional component A and a cross-linking component B, the cross-linking component B including a plurality of nitrene precursors, wherein the substrate being a structure selected from the group consisting of film, hollow fiber, fiber, textile, membrane, porous membrane, microporous membrane, and battery separator.
A water-in-oil-in-water emulsion comprising: (a) water; (b) at least one polylysine; and (c) at least one polar modified polymer selected from the group consisting of: a low carbon oil-soluble polar modified polymer comprising at least one C2-C4 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 25 000 g/mol and a melting point above 75°C; an high carbon oil-soluble polar modified polymer comprising at least one C22-C40 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 30000 g/mol and a crystallinity of 8% to 60%; and mixtures thereof, said emulsion further comprising at least one surfactant, said emulsion being obtainable by reacting the at least one oil-soluble polar modified polymer with the polylysine so as to form a reaction product in the water-in-oil-in-water emulsion. (a) water; (b) at least one polylysine; and (c) at least one polar modified polymer selected from the group consisting of: a low carbon oil-soluble polar modified polymer comprising at least one C2-C4 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 25 000 g/mol and a melting point above 75°C; an high carbon oil-soluble polar modified polymer comprising at least one C22-C40 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 30000 g/mol and a crystallinity of 8% to 60%; and mixtures thereof, a low carbon oil-soluble polar modified polymer comprising at least one C2-C4 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 25 000 g/mol and a melting point above 75°C; an high carbon oil-soluble polar modified polymer comprising at least one C22-C40 monomer and modified with at least one hydrophilic unit, and having a weight-average molecular weight of less than or equal to 30000 g/mol and a crystallinity of 8% to 60%; and mixtures thereof,
A product dispensing system for dispensing a foamed food product provided with a holder which contains a product to be dispensed, and product discharge means for discharging product coming from the holder, wherein the product discharge means are provided with a microfiltration device which is provided with a product entrance for supply of product, wherein the microfiltration device is connectable to a fluid supply for supplying gas to the product during product discharge, wherein the microfiltration device is provided with a microfiltration wall having gas transmissive pores, for instance, a tubular wall, which separates a gas supply space associated with the fluid supply from a product feed-through channel associated with the product entrance, wherein a distance between the product holder and the microfiltration device is less than 20 cm, for instance a distance less than 5 cm.
A method for signaling resource assignment information by a base station in a frequency division multiple access, FDMA, system, the method comprising: configuring a bitmap indicating, for each of a plurality of resource blocks (407, 408, 409, 410, 411, 412, 413, 414, 415, 416, 417) each having a time-frequency area, whether or not the each resource block is allocated; generating a sequence of short Identifiers, IDs, for user equipment, UE, the sequence of short IDs indicating which UE is allocated in correspondence with the allocated resource blocks addressed by the bitmap; and sending the bitmap and the sequence of short IDs to UEs within a cell on a control channel, wherein the size of the short IDs is determined according to a number of the allocated UEs. configuring a bitmap indicating, for each of a plurality of resource blocks (407, 408, 409, 410, 411, 412, 413, 414, 415, 416, 417) each having a time-frequency area, whether or not the each resource block is allocated; generating a sequence of short Identifiers, IDs, for user equipment, UE, the sequence of short IDs indicating which UE is allocated in correspondence with the allocated resource blocks addressed by the bitmap; and sending the bitmap and the sequence of short IDs to UEs within a cell on a control channel, wherein the size of the short IDs is determined according to a number of the allocated UEs.
A method of paging in a wireless communication system, comprising: receiving data destined for a user equipment; and characterized by determining a short identity for the user equipment relative to a longer global user equipment identity; identifying a master information block, MIB, transmission based on the short identity; activating, based on the short identity, a bit within a slot of the MIB transmission to indicate that the user equipment listen for a page in order to receive the data; and broadcasting the MIB. receiving data destined for a user equipment; and characterized by determining a short identity for the user equipment relative to a longer global user equipment identity; identifying a master information block, MIB, transmission based on the short identity; activating, based on the short identity, a bit within a slot of the MIB transmission to indicate that the user equipment listen for a page in order to receive the data; and broadcasting the MIB.
A prosthetic device, comprising: a finger digit; and a motor configured to move the finger digit based at least in part on one or more command signals received from a controller, wherein the controller is configured to: determine, based at least in part on a command signal, to move the finger digit, communicate a first command signal to alter a duty cycle of the motor to satisfy a first duty cycle level to overcome stiction associated with one or more components of the motor, and based at least in part on a determination that the duty cycle of the motor satisfies the first duty cycle level, communicate a second command signal to systematically increase the duty cycle of the motor over a predetermined duration of time to satisfy a second duty cycle level. a finger digit; and a motor configured to move the finger digit based at least in part on one or more command signals received from a controller, wherein the controller is configured to: determine, based at least in part on a command signal, to move the finger digit, communicate a first command signal to alter a duty cycle of the motor to satisfy a first duty cycle level to overcome stiction associated with one or more components of the motor, and based at least in part on a determination that the duty cycle of the motor satisfies the first duty cycle level, communicate a second command signal to systematically increase the duty cycle of the motor over a predetermined duration of time to satisfy a second duty cycle level. determine, based at least in part on a command signal, to move the finger digit, communicate a first command signal to alter a duty cycle of the motor to satisfy a first duty cycle level to overcome stiction associated with one or more components of the motor, and based at least in part on a determination that the duty cycle of the motor satisfies the first duty cycle level, communicate a second command signal to systematically increase the duty cycle of the motor over a predetermined duration of time to satisfy a second duty cycle level.
An antenna positioning method for a communication device that performs communication using a plurality of antennas (ATR1, ATR2) positioned on a straight line, comprising: a first step of measuring radiation pattern characteristics of each antenna (ATR1, ATR2); a second step of detecting a direction in which fluctuation of the radiation pattern characteristics of each antenna is largest; and a third step of positioning each antenna in the communication device so that the direction in which said characteristic fluctuation is largest coincides with the straight line direction. a first step of measuring radiation pattern characteristics of each antenna (ATR1, ATR2); a second step of detecting a direction in which fluctuation of the radiation pattern characteristics of each antenna is largest; and a third step of positioning each antenna in the communication device so that the direction in which said characteristic fluctuation is largest coincides with the straight line direction.
Disposable cartridge usable for a blood treatment apparatus provided with at least one frontal access pump, said cartridge consisting of at least one duct portion whose structure and position, by approaching the disposable cartridge to the apparatus, determine the association of said duct portion with said pump, so as to complete the apparatus in order to use it; said frontal access pump being provided with a plurality of hammer elements (300, 301) positioned along a rectilinear stretch; - said disposable cartridge being provided with at least one mechanically rigid wall or side which defines a reaction plane for at least one hammer element; and - a corresponding tube portion, fixed to the disposable cartridge and on which said hammer elements (300, 301) act, extending linearly; characterised in that - said disposable cartridge contains a plurality of components necessary for a blood treatment procedure and the corresponding internal connections, the connections external to the patient and/or containers for substances to be injected and/or containers for waste products to be eliminated, being said components of the disposable cartridge assembled in such a way as to be ready for use; said components comprising a filtering device for blood or haemofilter, a hoxygenator device, and an oxygen connector featuring a corresponding delivering device positioned on said apparatus; - said disposable cartridge is provided with one identification element which can be univocally associated with a corresponding element of the apparatus provided with the pump. - said disposable cartridge being provided with at least one mechanically rigid wall or side which defines a reaction plane for at least one hammer element; and - a corresponding tube portion, fixed to the disposable cartridge and on which said hammer elements (300, 301) act, extending linearly; characterised in that - said disposable cartridge contains a plurality of components necessary for a blood treatment procedure and the corresponding internal connections, the connections external to the patient and/or containers for substances to be injected and/or containers for waste products to be eliminated, being said components of the disposable cartridge assembled in such a way as to be ready for use; said components comprising a filtering device for blood or haemofilter, a hoxygenator device, and an oxygen connector featuring a corresponding delivering device positioned on said apparatus; - said disposable cartridge is provided with one identification element which can be univocally associated with a corresponding element of the apparatus provided with the pump.
A method of preparing drug-containing microparticles comprising: dissolving a biodegradable polymer in organic solvent to form a polymer solution; dissolving or dispersing a drug in the polymer solution to form a polymer-drug-solvent phase; mixing the polymer-drug-solvent phase with an aqueous suspension comprising an inorganic gel to form a dispersion comprising polymer-drug droplets dispersed in the aqueous suspension, wherein the inorganic gel can be dissolved by acid; evaporating the organic solvent from the dispersion to convert the polymer-drug droplets to drug-containing microparticles; and recovering the drug-containing microparticles from the dispersion, wherein the step of recovering the drug-containing microparticles from the dispersion comprises adding acid to the dispersion to dissolve the inorganic gel. dissolving a biodegradable polymer in organic solvent to form a polymer solution; dissolving or dispersing a drug in the polymer solution to form a polymer-drug-solvent phase; mixing the polymer-drug-solvent phase with an aqueous suspension comprising an inorganic gel to form a dispersion comprising polymer-drug droplets dispersed in the aqueous suspension, wherein the inorganic gel can be dissolved by acid; evaporating the organic solvent from the dispersion to convert the polymer-drug droplets to drug-containing microparticles; and recovering the drug-containing microparticles from the dispersion, wherein the step of recovering the drug-containing microparticles from the dispersion comprises adding acid to the dispersion to dissolve the inorganic gel.
A method for predicting a risk for rollover of a working machine for load transportation, wherein the working machine comprises a load carrying attachment that is liftable in the vertical direction by means of hydraulically controlled pivotal linkage mechanism, the method comprising: obtaining ground topographic data of a geographical area located within a detection capacity of a ground topographic detection system; extracting a ground gradient (22, 22a, 22b, 22c) from the ground topographic data; predicting a future driving path of the working machine based at least on data of historical driving paths of the working machine in the present geographical area, and/or on data of historical driving paths of other similar working machines in the present geographical area; obtaining weight information of the load being currently transported by means of an on-board load weighting system or by receiving load information originating from the device that loaded the load being currently transported; obtaining a lift position of said load carrying attachment; determining a centre of mass of said working machine; determining a current maximal allowed ground gradient for the working machine based on said weight information, said centre of mass, and said lift position; predicting a risk for working machine rollover if the predicted future driving path of the working machine includes a ground gradient (22, 22a, 22b, 22c) exceeding or being close to the current maximal allowed ground gradient for the working machine; and performing an action to reduce the risk for rollover. obtaining ground topographic data of a geographical area located within a detection capacity of a ground topographic detection system; extracting a ground gradient (22, 22a, 22b, 22c) from the ground topographic data; predicting a future driving path of the working machine based at least on data of historical driving paths of the working machine in the present geographical area, and/or on data of historical driving paths of other similar working machines in the present geographical area; obtaining weight information of the load being currently transported by means of an on-board load weighting system or by receiving load information originating from the device that loaded the load being currently transported; obtaining a lift position of said load carrying attachment; determining a centre of mass of said working machine; determining a current maximal allowed ground gradient for the working machine based on said weight information, said centre of mass, and said lift position; predicting a risk for working machine rollover if the predicted future driving path of the working machine includes a ground gradient (22, 22a, 22b, 22c) exceeding or being close to the current maximal allowed ground gradient for the working machine; and performing an action to reduce the risk for rollover.