mhurhangee/ep-ind-claims huggingface dataset:
A microparticle powder consisting of lipid matrix microparticles of cysteamine or a salt thereof, wherein the lipid matrix contains an adjuvant selected among fatty acids and their salts, esters and corresponding alcohols and other lipid excipients or mixtures thereof and wherein said adjuvant is selected among aluminum stearate, stearic, lauric, palmitic, linoleic or myristic acid, cetostearyl alchohol, glyceryl monostearate, glyceryl palmitostearate, carnauba wax, glyceryl tristearate, glyceryl dibehenate EP, behenoyl polyoxyl-8 glycerides NF, glycerol distearate type I, EP and mixtures thereof, wherein the lipid matrix microparticles are layered with spray-dried microparticles, and wherein said spray-dried microparticles consist of a mixture of a phospholipid with sucralfate gel. dibehenate EP, behenoyl polyoxyl-8 glycerides NF, glycerol distearate type I, EP and mixtures thereof, wherein the lipid matrix microparticles are layered with spray-dried microparticles, and wherein said spray-dried microparticles consist of a mixture of a phospholipid with sucralfate gel.
Modular building block, in particular for realizing partition structures or furniture, comprising mechanical fastening means (20, 21) for mutual dry connection to at least a second modular block, said mechanical fastening means for mutual dry connection to at least a second modular block comprising at least a hook rotatably fastened to said modular block, and at least a hooking element configured to be coupled with said at least one hook of said at least one second modular block, said at least one hook being movable from a first rest position, in which it does not project from said block, to a second position, in which it projects from said block so that it can be coupled with the hooking element of said at least one second modular block, characterized in that said building block further comprises at least a vertical supporting plate fastened to said block and at least a rod extended in horizontal direction and introduced inside that block, wherein said at least one hook is hinged to said at least one vertical supporting plate and in that said supporting plate is fastened in turn to a portion of said rod, thereby creating structural continuity between said blocks.
A method for synchronizing a mobile station to a base station, comprising in the base station: generating an information about a frequency of a channel which is used to transmit data about the identity of the base station; generating a further information about a further frequency of a further channel which is used to transmit the data about the identity of the base station; and transmitting the information and the further information from the base station to the mobile station; and preparing the information and the further information in form of a sorted list ordered according to increasing signal strengths of the corresponding frequency channels, wherein the base station is a fixed part of a DECT system and the mobile station is a portable part of a DECT system; and the channel used to transmit the data about the identity of the base station is a dummy bearer or a beacon. generating an information about a frequency of a channel which is used to transmit data about the identity of the base station; generating a further information about a further frequency of a further channel which is used to transmit the data about the identity of the base station; and transmitting the information and the further information from the base station to the mobile station; and preparing the information and the further information in form of a sorted list ordered according to increasing signal strengths of the corresponding frequency channels, wherein the base station is a fixed part of a DECT system and the mobile station is a portable part of a DECT system; and the channel used to transmit the data about the identity of the base station is a dummy bearer or a beacon.
A Controller Area Network, CAN, transmitter (100, 300, 400) comprising: an oscillator (101, 301, 401) configured to generate a clock signal having n equally spaced phases (clk_0, clk_120, clk_240), where n is an integer greater than 1; n Digital to Analog Converters, DACs (102 1-3, 302, 402), each DAC having an input connected to one of the n phases of the clock signal and to a common data input line (304, 404), each DAC being configured to provide an output signal that transitions between first and second output levels in the same M discrete steps upon being triggered by a transition of a signal on the data input line (304, 404) synchronized with the one of the n phases of the clock signal; and an output amplifier stage (103, 303, 403) configured to provide a differential CAN output signal from a combination of output signals from each of the n DACs (102 1-3, 302, 402), the output amplifier stage comprising first and second output transistors (406, 408) configured to provide respective first and second output levels (CANH, CANL) of the differential CAN output signal, wherein each DAC comprises a first high side DAC (402 1) and a second low side DAC (402 2), the first high side DAC (402 1) configured to provide an output to the first output transistor to drive a first high level (CANH) of the differential CAN output signal and the second low side DAC (402 2) configured to provide an output to the second output transistor to drive a second low level (CANL) of the differential CAN output signal. an oscillator (101, 301, 401) configured to generate a clock signal having n equally spaced phases (clk_0, clk_120, clk_240), where n is an integer greater than 1; n Digital to Analog Converters, DACs (102 1-3, 302, 402), each DAC having an input connected to one of the n phases of the clock signal and to a common data input line (304, 404), each DAC being configured to provide an output signal that transitions between first and second output levels in the same M discrete steps upon being triggered by a transition of a signal on the data input line (304, 404) synchronized with the one of the n phases of the clock signal; and an output amplifier stage (103, 303, 403) configured to provide a differential CAN output signal from a combination of output signals from each of the n DACs (102 1-3, 302, 402), the output amplifier stage comprising first and second output transistors (406, 408) configured to provide respective first and second output levels (CANH, CANL) of the differential CAN output signal, wherein each DAC comprises a first high side DAC (402 1) and a second low side DAC (402 2), the first high side DAC (402 1) configured to provide an output to the first output transistor to drive a first high level (CANH) of the differential CAN output signal and the second low side DAC (402 2) configured to provide an output to the second output transistor to drive a second low level (CANL) of the differential CAN output signal.
The use of a fragment of PERLECAN, said fragment being the Endorepellin domain or the LG3 domain, as a biomarker determined in a blood sample for diagnosing, predicting, prognosticating and/or monitoring renal dysfunction of the treatment thereof, in a subject, wherein an elevated quantity of said Endorepellin or LG3 compared to a reference value representing the prediction or diagnosis of normal renal function or representing a good prognosis for renal dysfunction indicates that the subject has or is at risk of having renal dysfunction or indicates a poor prognosis for renal dysfunction in the subject.
A hot-dipped galvanized steel sheet comprising a zinc plating layer, wherein grains of the zinc plating layer have an average particle diameter of 150 μm to 400 μm, and intensity of preferred orientation of planes of the zinc plating layer is from 3000 cps (count per second) to 20000 cps when the hot dipped galvanized sheet is irradiated with X-rays generated under the conditions of 20 kV and 10 mA, with a tilt angle of the sheet of 5°, and with intensity values measured at intervals of 5° in a rotational angle of 0° to 360° being averaged, wherein the grains of the zinc plating layer have a diameter of 30 μm or greater and a diameter deviation equal to or less than 40% of the average particle diameter thereof, and wherein the zinc plating layer optionally includes aluminium (Al), antimony (Sb) and/or lead (Pb).
A processor-implemented method comprising: receiving (132, 602), at a notification server, a notification request including a notification target identification; determining a notification user interface, UI, form specification defining a notification UI form to be displayed on a target device (124, 126) for collecting user input based on the notification target identification; and communicating (136, 614), responsive to receipt of the notification request, a notification including the determined notification UI form specification to the target device for presentation of the notification UI form through a user interface of the target device; wherein the notification UI form allows a user to specify an alternative device (124, 126) at which to receive the notification. receiving (132, 602), at a notification server, a notification request including a notification target identification; determining a notification user interface, UI, form specification defining a notification UI form to be displayed on a target device (124, 126) for collecting user input based on the notification target identification; and communicating (136, 614), responsive to receipt of the notification request, a notification including the determined notification UI form specification to the target device for presentation of the notification UI form through a user interface of the target device; wherein the notification UI form allows a user to specify an alternative device (124, 126) at which to receive the notification.
An electromagnetic radiation detection device comprising: at least one row of photoresistors, each photoresistor comprising an active portion comprising organic semiconductor materials; emitters of the electromagnetic radiation and a waveguide comprising at least one surface intended to be in contact with at least one object, the photoresistors being distributed along an edge of said surface, characterized in that the emitters are distributed along said edge and arranged alternatively with the photoresistors. at least one row of photoresistors, each photoresistor comprising an active portion comprising organic semiconductor materials; emitters of the electromagnetic radiation and a waveguide comprising at least one surface intended to be in contact with at least one object, the photoresistors being distributed along an edge of said surface, characterized in that the emitters are distributed along said edge and arranged alternatively with the photoresistors.
A light bulb shaped lamp comprising: a hollow globe having an opening; a first light-emitting module comprising a first base platform having a through hole and a first semiconductor light-emitting device mounted on the first base platform, the first light-emitting module being housed in the globe; a stem extending from the opening of the globe to the vicinity of the first light-emitting module; a first lead wire connected to the first light emitting module and configured to supply the first light-emitting module with power; and a regulating component which is fixed to an end of the stem and which is inserted in the through hole, wherein the regulating component is configured to regulate a movement of the first light-emitting module with respect to the stem, characterized in that the regulating component has a strength sufficient for regulating the movement of the light-emitting module in a horizontal plane such that, when the light bulb shaped lamp is shaken, stress exerted on a part connecting the lead wire and the light-emitting module is suppressed; the light bulb shaped lamp further comprises: a plurality of the regulating component, wherein the first base platform has a plurality of the through-holes each corresponding to one of the plurality of regulating components. a hollow globe having an opening; a first light-emitting module comprising a first base platform having a through hole and a first semiconductor light-emitting device mounted on the first base platform, the first light-emitting module being housed in the globe; a stem extending from the opening of the globe to the vicinity of the first light-emitting module; a first lead wire connected to the first light emitting module and configured to supply the first light-emitting module with power; and a regulating component which is fixed to an end of the stem and which is inserted in the through hole, wherein the regulating component is configured to regulate a movement of the first light-emitting module with respect to the stem, characterized in that the regulating component has a strength sufficient for regulating the movement of the light-emitting module in a horizontal plane such that, when the light bulb shaped lamp is shaken, stress exerted on a part connecting the lead wire and the light-emitting module is suppressed;
A fuse holder for retaining a plug fuse in a socket of an electrical cabinet, the fuse holder comprising: a retaining portion being releasable attachable to the socket of the electrical cabinet, wherein the retaining portion comprises an Edison type connection; an electricity meter configured to measure a current running through an external electrical circuit comprising the fuse and the fuse holder; a wireless transceiver configured to send information measured by the electricity meter; wherein the electricity meter and the wireless transceiver are components forming part of an internal electrical circuit; and the fuse holder further comprises a power supply, wherein the power supply is an internal power supply of the fuse holder, characterised in that: the fuse holder further comprises a switch included in the external electrical circuit and being configured to switch the fuse holder between an active state and an inactive state, wherein in the active state the fuse holder is configured to connect the fuse into the external electrical circuit, and wherein in the inactive state the fuse holder is configured to disconnect the fuse from the external electrical circuit; the wireless transceiver is further configured to receive information for controlling the switch between the active and inactive states; the power supply is in the form of a battery and is configured to power the components of the internal electrical circuit upon no current is running through the external electrical circuit. a retaining portion being releasable attachable to the socket of the electrical cabinet, wherein the retaining portion comprises an Edison type connection; an electricity meter configured to measure a current running through an external electrical circuit comprising the fuse and the fuse holder; a wireless transceiver configured to send information measured by the electricity meter; wherein the electricity meter and the wireless transceiver are components forming part of an internal electrical circuit; and the fuse holder further comprises a power supply, wherein the power supply is an internal power supply of the fuse holder, the fuse holder further comprises a switch included in the external electrical circuit and being configured to switch the fuse holder between an active state and an inactive state, wherein in the active state the fuse holder is configured to connect the fuse into the external electrical circuit, and wherein in the inactive state the fuse holder is configured to disconnect the fuse from the external electrical circuit; the wireless transceiver is further configured to receive information for controlling the switch between the active and inactive states; the power supply is in the form of a battery and is configured to power the components of the internal electrical circuit upon no current is running through the external electrical circuit.
Thermal Storage System by Phase Change Material comprising: - a tank intended to contain a PCM, - a circulation system intended for the circulation in the tank of a solvent in direct contact with the PCM, characterised in that it comprises a device for controlling the crystallisation of the PCM comprising: - a first injection module configured to inject, in the lower portion of the tank in the PCM, a two-phase solvent, liquid/gas to the liquid state, wherein the PCM is insoluble, - a first discharge module configured to discharge the two-phase solvent in the gaseous state in the upper portion of the tank, opposite the lower portion, - a second injection module configured to inject, in the lower portion of the tank, the solvent to the gaseous state in direct contact with the PCM, - a second discharge module configured to discharge the two-phase solvent in the liquid state in the upper portion of the tank, and - an external heat exchanger intended to transfer the thermal energy between the solvent and a heat-transfer fluid coming from an external network for circulating the heat-transfer fluid (20, 21) and configured to alternatively condense the gaseous solvent discharged from the tank by the first discharge module or discharge the solvent in the liquid state for the injection thereof in the vapour state overheated by the second injection module. - a tank intended to contain a PCM, - a circulation system intended for the circulation in the tank of a solvent in direct contact with the PCM, - a first injection module configured to inject, in the lower portion of the tank in the PCM, a two-phase solvent, liquid/gas to the liquid state, wherein the PCM is insoluble, - a first discharge module configured to discharge the two-phase solvent in the gaseous state in the upper portion of the tank, opposite the lower portion, - a second injection module configured to inject, in the lower portion of the tank, the solvent to the gaseous state in direct contact with the PCM, - a second discharge module configured to discharge the two-phase solvent in the liquid state in the upper portion of the tank, and - an external heat exchanger intended to transfer the thermal energy between the solvent and a heat-transfer fluid coming from an external network for circulating the heat-transfer fluid (20, 21) and configured to alternatively condense the gaseous solvent discharged from the tank by the first discharge module or discharge the solvent in the liquid state for the injection thereof in the vapour state overheated by the second injection module.
A system, having at least one first cycle for cooling an internal combustion engine for a motor vehicle, at least one exhaust gas heat exchanger for using the waste heat of the internal combustion engine, at least one Organic Rankine cycle for driving at least one expansion machine and for the throughflow of at least one first heat exchanger medium, wherein the Organic Rankine cycle, apart from a pre-heat exchanger stage for preheating and/or evaporating, has at least one second heat exchanger stage for evaporating and/or overheating the first heat exchanger medium, wherein the pre-heat exchanger stage and the second heat exchanger stage are flowed through by a second medium, in particular a coolant, wherein at least one coolant cooler for cooling the internal combustion engine and/or the pre-heat exchanger stage are arranged in the first cycle, wherein at least one first branch site for the division into a first partial flow for flowing through the coolant cooler and into a second partial flow is provided in the first cycle at the outflow side of the internal combustion engine, characterised in that the first cycle has at least one second branch site at the outflow side of the first branch site for the division of the second partial flow into a third partial flow and into a branch flow for flowing through the exhaust gas heat exchanger or the exhaust gas heat exchanger and the second heat exchanger stage.
A health and safety unit, comprising: a vertically arranged panel having a first side and a second side opposite the first side; and a mounting structure (14, 16) for movably mounting the panel to a housing, wherein the panel defines a plurality of pockets (22, 24) extending through the first and second sides and dimensioned to receive and support one or more items for storing within the housing, and wherein said panel, when movably mounted to the housing by the mounting structure, is movable between a first position and a second position, wherein the panel and any items received therein are enclosed within the housing in the first position, and wherein the panel and any items received therein are accessible in the second position such that the one or more items can be removed from the plurality of pockets (22, 24) for use, wherein the vertically arranged panel is mounted to be slid in and out of the housing in use in a substantially horizontal direction, wherein at least one of the one or more items is accessible from both the first and second sides of the panel. wherein the vertically arranged panel is mounted to be slid in and out of the housing in use in a substantially horizontal direction, wherein at least one of the one or more items is accessible from both the first and second sides of the panel.
A method of adaptively controlling the charging time of a storage heater, the storage heater having a heating cycle where the storage heater is heated in advance of a distribution of heat from the storage heater, the method comprising: determining a stored energy requirement of the heater, the stored energy requirement being a function of a number of programmed heating hours and an expected heating demand per hour of the storage heater and comprises multiplying a number of heating hours programmed by a user by a heating demand as determined according to a seasonal band and a room temperature setpoint set by a user; determining a background heat requirement of the heater, the background heat requirement being a function of a remainder of time in a day other than the programmed heating hours and a standing loss value associated with the storage heater; determining a daily energy requirement, DER, of the heater based on the stored energy requirement and the background heat requirement; and determining a daily run time, DRT, at a predetermined time in advance of each heating cycle, the daily run time being a minimum charging time for the storage heater based on the daily energy requirement, DER and residual energy in the storage heater. determining a stored energy requirement of the heater, the stored energy requirement being a function of a number of programmed heating hours and an expected heating demand per hour of the storage heater and comprises multiplying a number of heating hours programmed by a user by a heating demand as determined according to a seasonal band and a room temperature setpoint set by a user; determining a background heat requirement of the heater, the background heat requirement being a function of a remainder of time in a day other than the programmed heating hours and a standing loss value associated with the storage heater; determining a daily energy requirement, DER, of the heater based on the stored energy requirement and the background heat requirement; and determining a daily run time, DRT, at a predetermined time in advance of each heating cycle, the daily run time being a minimum charging time for the storage heater based on the daily energy requirement, DER and residual energy in the storage heater.