mhurhangee/ep-ind-claims huggingface dataset:
A method of performing compressed sensing of streaming data, comprising: recursively sampling an input stream of data using successive overlapping windows at least in part by: recursively selecting a sequence of sensing matrices A for the overlapping windows in the input stream of data, the sensing matrix A (i+1) for the (i+2)-th overlapping window being defined by the following equation: A (i+1) = [a 2 (i), a 3 (i),..., a n (i), a 1 (i)], where a L (i) is the L-th column of the sensing matrix A (i), n is the length of each overlapping window, and i is greater than or equal to 0; and obtaining a measurement y (i+1) for the (i+2)-th overlapping window using the following equation: y (i+1) = y (i) + (x i+n - x i)a 1 (i), where i is greater than or equal to 0 and signal x (i) of the input stream of data corresponding to the (i+1)-th overlapping window is defined by the following equation: x (i) = [x i x i+1... x i+n-1] T, and the measurement y for the initial overlapping window is defined by the following equation: y = A x. recursively selecting a sequence of sensing matrices A for the overlapping windows in the input stream of data, the sensing matrix A (i+1) for the (i+2)-th overlapping window being defined by the following equation: A (i+1) = [a 2 (i), a 3 (i),..., a n (i), a 1 (i)], where a L (i) is the L-th column of the sensing matrix A (i), n is the length of each overlapping window, and i is greater than or equal to 0; and obtaining a measurement y (i+1) for the (i+2)-th overlapping window using the following equation: y (i+1) = y (i) + (x i+n - x i)a 1 (i), where i is greater than or equal to 0 and signal x (i) of the input stream of data corresponding to the (i+1)-th overlapping window is defined by the following equation: x (i) = [x i x i+1... x i+n-1] T, and the measurement y for the initial overlapping window is defined by the following equation: y = A x.
An in vitro process for producing an insulin-producing cell by direct differentiation induction from a somatic cell, comprising a step of culturing a fibroblast or a mesenchymal stem cell in a differentiation induction medium containing at least 20 μg/mL of insulin, an RSK inhibitor, a GSK3 inhibitor and a cAMP inducer, wherein the RSK inhibitor is BRD7389 or BI-D1870, the GSK3 inhibitor is CHIR99021 and the cAMP inducer is forskolin, wherein the differentiation induction medium is serum-free.
A game controller comprising: a plurality of controls; an accessory interface configured to removably affix an external accessory to the game controller; and a control mapping machine configured to: map a first control of the plurality of controls to a first function while the external accessory is not affixed to the game controller, and map the first control to a second function different than the first function while the external accessory is removably affixed to the game controller and in response to a second control different than the first control being activated. a plurality of controls; an accessory interface configured to removably affix an external accessory to the game controller; and a control mapping machine configured to: map a first control of the plurality of controls to a first function while the external accessory is not affixed to the game controller, and map the first control to a second function different than the first function while the external accessory is removably affixed to the game controller and in response to a second control different than the first control being activated. map a first control of the plurality of controls to a first function while the external accessory is not affixed to the game controller, and map the first control to a second function different than the first function while the external accessory is removably affixed to the game controller and in response to a second control different than the first control being activated.
A spilt type easily-handling steam iron, comprising an iron and a base, wherein the iron is gradually uplifted from front to back; a concave portion is arranged at the rear end of the iron, a bottom plate is arranged at the bottom of the iron, and a handle is arranged at the top of the iron; the top of the base is provided with a placing position for placing the iron; a convex portion capable of extending into the concave portion at the rear end of the iron is arranged at the rear end of the placing position; characterized in that a locking structure is arranged at the portion of the base located at the front end of the placing position comprising a reversible handle and a slide lock in contact with the handle; said handle being provided with a bias portion driving the slide lock close to the front end of the iron to lock the iron to the base or allowing a space between the slide lock and said front end of the iron to unlock the iron from the base by pivoting said handle.
A system for limiting arcing during an electroporation procedure, the system comprising: a catheter (14, 200) configured to deliver a calibration shock and a therapeutic shock, wherein the catheter is configured to deliver the calibration shock at a first anatomical site that is a blood pool, and configured to deliver the therapeutic shock at a second anatomical site different than the first anatomical site; and a processing device communicatively coupled to the catheter (14, 200), the processing device configured to: calculate, based on a measured current delivered during the calibration shock at the blood pool and a measured voltage delivered during the calibration shock at the blood pool, a calibration shock impedance; calculate a bridge impedance based on the calibration shock impedance and a target impedance, wherein the bridge impedance is a difference between the calibration shock impedance and the target impedance; and add, prior to delivery of the therapeutic shock at the second anatomical site, an impedance in series with the catheter, the impedance being greater than or equal to the bridge impedance. a catheter (14, 200) configured to deliver a calibration shock and a therapeutic shock, wherein the catheter is configured to deliver the calibration shock at a first anatomical site that is a blood pool, and configured to deliver the therapeutic shock at a second anatomical site different than the first anatomical site; and a processing device communicatively coupled to the catheter (14, 200), the processing device configured to: calculate, based on a measured current delivered during the calibration shock at the blood pool and a measured voltage delivered during the calibration shock at the blood pool, a calibration shock impedance; calculate a bridge impedance based on the calibration shock impedance and a target impedance, wherein the bridge impedance is a difference between the calibration shock impedance and the target impedance; and add, prior to delivery of the therapeutic shock at the second anatomical site, an impedance in series with the catheter, the impedance being greater than or equal to the bridge impedance. calculate, based on a measured current delivered during the calibration shock at the blood pool and a measured voltage delivered during the calibration shock at the blood pool, a calibration shock impedance; calculate a bridge impedance based on the calibration shock impedance and a target impedance, wherein the bridge impedance is a difference between the calibration shock impedance and the target impedance; and add, prior to delivery of the therapeutic shock at the second anatomical site, an impedance in series with the catheter, the impedance being greater than or equal to the bridge impedance.
A method of cooling a turbine engine in an aircraft, said method comprising: shutting down the turbine engine such that a rotational speed of the turbine engine decreases; obtaining feedback indicating a likelihood that residual heat is present in the turbine engine sufficient to cause a thermal gradient capable of forming thermal rotor bow; determining a flight status of the aircraft attached to the turbine engine, ensuring no response to the feedback if the aircraft is in flight; and if the aircraft is not in flight, then, responsive to the feedback, actuating a starter motor of the turbine engine either as the rotational speed of the turbine engine decreases or at a preset time after the turbine engine receives a full stop command to rotate a rotor assembly of the turbine engine such that residual heat is exhausted from the turbine engine. shutting down the turbine engine such that a rotational speed of the turbine engine decreases; obtaining feedback indicating a likelihood that residual heat is present in the turbine engine sufficient to cause a thermal gradient capable of forming thermal rotor bow; determining a flight status of the aircraft attached to the turbine engine, ensuring no response to the feedback if the aircraft is in flight; and if the aircraft is not in flight, then, responsive to the feedback, actuating a starter motor of the turbine engine either as the rotational speed of the turbine engine decreases or at a preset time after the turbine engine receives a full stop command to rotate a rotor assembly of the turbine engine such that residual heat is exhausted from the turbine engine.
A flexible web intended for the realisation of a false ceiling in a room, the said web consisting of two fabrics (3, 4) superimposed and assembled together at their peripheral edge, one of the fabrics (3, 4) being solid, the other being perforated, characterized in that the fabric arranged above, which is perforated, has a weight greater than that of the solid fabric arranged below so that the perforated fabric is help in place on the solid fabric when the web is attached to the rail.
A retaining ring comprising a pair of retaining clips (13, 13), each retaining clip comprising a substantially planar annular sector portion with a sector angle of over 180° and having a recess at each end of the sector arc, wherein the recessed ends cooperate such that the pair of clips form a complete annulus, wherein the complete annular retaining ring has a substantially constant annular width (w), characterised in that each retaining clip is a resilient over-centre retaining clip configured to self-retain on a substantially cylindrical body.
A sodium-halogen secondary cell, comprising: a negative electrode compartment housing a negative electrode that comprises sodium, wherein the negative electrode electrochemically oxidizes to release sodium ions during discharge and electrochemically reduces sodium ions to form sodium metal during recharge; a positive electrode compartment housing a current collector disposed in a liquid positive electrode solution that comprises a halogen and a sodium halide, wherein the liquid positive electrode solution comprises an excess amount of the sodium halide to the halogen to form polyhalide, X 3 -, and to reduce the amount of halogen in the liquid positive electrode solution; and a sodium ion conductive electrolyte membrane that separates the negative electrode from the liquid positive electrode solution. a negative electrode compartment housing a negative electrode that comprises sodium, wherein the negative electrode electrochemically oxidizes to release sodium ions during discharge and electrochemically reduces sodium ions to form sodium metal during recharge; a positive electrode compartment housing a current collector disposed in a liquid positive electrode solution that comprises a halogen and a sodium halide, wherein the liquid positive electrode solution comprises an excess amount of the sodium halide to the halogen to form polyhalide, X 3 -, and to reduce the amount of halogen in the liquid positive electrode solution; and a sodium ion conductive electrolyte membrane that separates the negative electrode from the liquid positive electrode solution.
A system for performing EMI susceptibility testing, comprising: a controller configured to emulate at least partly a live cellular network; and an EMI generation unit coupled to the controller, the EMI generation unit including a plurality of EMI generating devices, each EMI generating device being controlled by the controller to generate EMI, wherein characteristics of the EMI generated by each of the plurality of EMI generating devices are substantially similar, wherein the EMI generating devices are cellular handsets. a controller configured to emulate at least partly a live cellular network; and an EMI generation unit coupled to the controller, the EMI generation unit including a plurality of EMI generating devices, each EMI generating device being controlled by the controller to generate EMI, wherein characteristics of the EMI generated by each of the plurality of EMI generating devices are substantially similar, wherein the EMI generating devices are cellular handsets.
A motor vehicle having a liquid-cooled internal combustion engine, having a retarder of a brake device of the motor vehicle, and having a cooling circuit, wherein the cooling circuit is provided with a main cooling circuit having a feed line leading to a cooler, in particular to a cooler formed by an air-water heat exchanger, and having a return line leading away from the cooler, and with a bypass line which bypasses the cooler and which can be controlled in a manner dependent on predefined parameters, for example in a manner dependent on temperature, and with at least one secondary cooling circuit which connects the retarder and which has a feed line and a return line and which is also connected by means of a control valve to the main cooling circuit, characterized in that the two cooling circuits (2, 3) can be controlled by means of a single rotary slide valve as control valve, to the housing, which has throughflow openings, of which the cooling circuits (2, 3) are connected such that the throughflow rates thereof to the cooler and to the retarder can be varied in a defined manner, in particular between 0% and 100%, wherein the housing of the rotary slide valve has four throughflow openings and is incorporated into the feed line from the internal combustion engine to the cooler, in that, via a third throughflow opening, the bypass line is connected between the feed line and the return line, and in that the return line of the retarder is connected to the fourth throughflow opening, wherein the feed line of the retarder is connected to the feed line of the main cooling circuit upstream of the rotary slide valve, and three of the throughflow openings are arranged radially on the housing of the rotary slide valve, preferably so as to lie in a common plane and/or so as to be distributed in a circumferential direction, and can be controlled by means of one rotary slide, preferably one rotary slide which is of sickle-shaped cross section, and in that the fourth throughflow opening for the return line of the retarder opens out axially with respect to the rotary slide and is permanently open, and, in the feed line from the internal combustion engine to the cooler, upstream of the rotary slide valve but downstream of the branching point of the feed line of the secondary cooling circuit, there is provided a throttle element which is designed so as to ensure a minimum throughput of cooling liquid through the retarder.
A method for cleaning a particulate filter in a vehicle provided with an internal combustion engine, which particulate filter is mounted in an operative position inside an exhaust muffler under normal operation of said engine, characterized by performing a cleaning process involving: - disassembling and removing the particulate filter from a first end of the muffler; - reversing and reassembling the particulate filter in a cleaning position at said first end of the muffler; - starting and operating the engine by controlling the engine speed according to a predefined cycle until a predetermined condition is fulfilled; and - stopping the engine and returning the particulate filter to its operative position inside the exhaust muffler. - disassembling and removing the particulate filter from a first end of the muffler; - reversing and reassembling the particulate filter in a cleaning position at said first end of the muffler; - starting and operating the engine by controlling the engine speed according to a predefined cycle until a predetermined condition is fulfilled; and - stopping the engine and returning the particulate filter to its operative position inside the exhaust muffler.
Method for transferring data within a layered architecture of network components via a connectionless transport protocol with confirmation, the method comprising at least the following steps: a) encapsulating data blocks from a source host in at least one data unit specific for the connectionless transport protocol with confirmation and sending the at least one protocol specific data unit via a network infrastructure to a destination host; and in the case that the at least one protocol specific data unit is received at the destination host: b) delivering the at least one protocol specific data unit to the destination host; c) constructing an acknowledgment message on the basis of protocol header (210, 220) information of the at least one received protocol specific data unit; d) sending the acknowledgment message back to the source host; and e) receiving the acknowledgment message at the source host; wherein all method steps are processed on a transport layer, wherein step a) comprises: aa) adding in the protocol header (210, 220) of the at least one data unit, source and destination port numbers, a message number of the at least one data unit and a checksum field, wherein step aa) further comprises: adding in the protocol header (210, 220) at least one of the following items: a synchronisation field, an acknowledgment field, a push-function field, a reset function field, a version-number of used software field, a field for the data length in the at least one data unit, wherein the header structure and size for the fields "message number" and "checksum" are altered in dependence from the size or load of the at least one data unit while the number of fields of the header (210, 220) remains unchanged. a) encapsulating data blocks from a source host in at least one data unit specific for the connectionless transport protocol with confirmation and sending the at least one protocol specific data unit via a network infrastructure to a destination host; and in the case that the at least one protocol specific data unit is received at the destination host: b) delivering the at least one protocol specific data unit to the destination host; c) constructing an acknowledgment message on the basis of protocol header (210, 220) information of the at least one received protocol specific data unit; d) sending the acknowledgment message back to the source host; and e) receiving the acknowledgment message at the source host;
An inkjet-printer comprising - a conveyor-belt with a sticky flat layer as a support layer for supporting a flat substrate while printing; and - a sticky-layer-cleaner for removing residues adhered to said sticky flat layer; wherein said sticky-layer-cleaner comprises: - a receptacle for a cleaning-liquid; and - a cleaning-roll, which is in contact with the sticky flat layer; wherein the cleaning-roll is characterized by comprising an elongated carpet fabric which is helical enfold around the cleaning-roll and in which the pile is composed of yarn tufts in loop and/or cut configuration; and wherein the cleaning-roll comprises a helical channel along the length of the enfolded carpet fabric for draining the cleaning-liquid from the cleaning-roll and/or for wetting the cleaning-roll by the cleaning-liquid. - a conveyor-belt with a sticky flat layer as a support layer for supporting a flat substrate while printing; and - a sticky-layer-cleaner for removing residues adhered to said sticky flat layer; wherein said sticky-layer-cleaner comprises: - a receptacle for a cleaning-liquid; and - a cleaning-roll, which is in contact with the sticky flat layer; wherein the cleaning-roll is characterized by comprising an elongated carpet fabric which is helical enfold around the cleaning-roll and in which the pile is composed of yarn tufts in loop and/or cut configuration; and wherein the cleaning-roll comprises a helical channel along the length of the enfolded carpet fabric for draining the cleaning-liquid from the cleaning-roll and/or for wetting the cleaning-roll by the cleaning-liquid. - a receptacle for a cleaning-liquid; and - a cleaning-roll, which is in contact with the sticky flat layer;
A nanostructured lipid gel formed by interspersing laminae and vesicles, characterised in that it comprises: - between 3% and 30% of a lipid concentration formed from a mixture of phospholipids and fatty acids in a molar ratio comprised between 5:1 and 1:1 without presence of polymers or surfactants - between 70% and 97% of water. - between 3% and 30% of a lipid concentration formed from a mixture of phospholipids and fatty acids in a molar ratio comprised between 5:1 and 1:1 without presence of polymers or surfactants - between 70% and 97% of water.
Cosmetic composition comprising: - at least one oxidation coupler chosen from 6-hydroxybenzomorpholine of formula below, one of its addition salts, its solvates and/or solvates of its salts: - at least one oxidation coupler chosen from hydroxyethyl-3,4-methylenedioxyaniline of formula below, one of its addition salts, its solvates and/or solvates of its salts: - one or more nonionic surfactants of alkylpolyglycoside type. - at least one oxidation coupler chosen from 6-hydroxybenzomorpholine of formula below, one of its addition salts, its solvates and/or solvates of its salts: - at least one oxidation coupler chosen from hydroxyethyl-3,4-methylenedioxyaniline of formula below, one of its addition salts, its solvates and/or solvates of its salts: - one or more nonionic surfactants of alkylpolyglycoside type.
A cooking apparatus for simultaneous cooking of a plurality of food items (5a, 5b, 5c) and comprising at least one cooking pot (4a, 4b, 4c, 4d) and a control unit with conductor means arranged to be connected to an electric energy supply, the control unit is provided with a plurality of electrical connection means (2a, 2b, 2c, 2d), each connection means (2a, 2b, 2c, 2d) being arranged to be connectable to the cooking pot (4a, 4b, 4c, 4d) for supply of electric energy to a respective cooking pot (4a, 4b, 4c, 4d), said control unit is arranged to allow simultaneous supply of electric energy through said plurality of connection means (2a, 2b, 2c, 2d), said control unit is arranged to govern switching means related to each connection means (2a, 2b, 2c, 2d), characterized in that the cooking pot (4a, 4b, 4c, 4d) comprises electrical heating means (3a, 3b, 3c, 3d) arranged to supply heat to a food item (5a, 5b, 5c, 5d) and arranged to be in direct contact therewith.
Method for the flow monitoring of a heat exchanger, preferably a heating system, with at least two fluid paths (2, 3) flowed through in parallel and a collecting pipe, into which the at least two parallel flowed through fluid paths (2, 3) open, wherein a temperature sensor is arranged in the collecting pipe, characterised in that in each of the parallel fluid paths (2, 3) respectively a temperature sensor (5, 6, 7) is arranged and from the temperatures measured by means of the temperature sensors (5, 6, 7) the amount of throughflow through at least one fluid path (2, 3) is calculated.