mhurhangee/ep-ind-claims huggingface dataset:
A dishwasher comprising: a main body; a washing tub provided in the main body; a door configured to close or open an open front side of the washing tub; a fixed nozzle (330, 340) fixed on a rear side of the washing tub and configured to spray washing water; a vane configured to reflect the washing water sprayed via the fixed nozzle (330, 340) toward dishes while being moved within the washing tub, wherein the vane extends in the left and right directions of the washing tub such that one end of the vane is adjacent to a left wall of the washing tub and the other end of the vane is adjacent to a right wall of the washing tub; and a rail assembly configured to guide the movement of the vane, and characterized in that the vane is rotationally coupled to the rail assembly to change a direction of movement of the washing water sprayed via the fixed nozzle (330, 340). a main body; a washing tub provided in the main body; a door configured to close or open an open front side of the washing tub; a fixed nozzle (330, 340) fixed on a rear side of the washing tub and configured to spray washing water; a vane configured to reflect the washing water sprayed via the fixed nozzle (330, 340) toward dishes while being moved within the washing tub, wherein the vane extends in the left and right directions of the washing tub such that one end of the vane is adjacent to a left wall of the washing tub and the other end of the vane is adjacent to a right wall of the washing tub; and a rail assembly configured to guide the movement of the vane, and characterized in that the vane is rotationally coupled to the rail assembly to change a direction of movement of the washing water sprayed via the fixed nozzle (330, 340).
A method for processing multidimensional zero-overhead loops (ZOLs), the method performable by a processor including an accumulator (36a, 36b) and an address generation unit (AGU308a, 308b) operatively attached to the processor, wherein the address generation unit iterates over the multidimensional zero-overhead loop, the method including resetting the accumulator (36a, 36b), the method characterised by: upon reaching a location in the multidimensional zero-overhead loop, generating one or more events associated with the reached location by the address generation unit (AGU308a, 308b); storing said one or more events in an event register; responsive to a reset signal, resetting the accumulator (36a, 36b) to zero or an initial value while avoiding breaking pipelined execution of the processor, wherein said reseet signal is generated by: storing in an event selection register an event number which specifies an event chosen by a programmer so that the accumulator reset responds to the event chosen by the programmer; logically ANDing a first input from said event register with a second input from the event selection register thereby producing a first AND output including a first plurality of outputs, and logically ORing together the first plurality of outputs, thereby producing a first OR output; responsive to said first OR output, generating the reset signal to the accumulator (36a, 36b). upon reaching a location in the multidimensional zero-overhead loop, generating one or more events associated with the reached location by the address generation unit (AGU308a, 308b); storing said one or more events in an event register; responsive to a reset signal, resetting the accumulator (36a, 36b) to zero or an initial value while avoiding breaking pipelined execution of the processor, wherein said reseet signal is generated by: storing in an event selection register an event number which specifies an event chosen by a programmer so that the accumulator reset responds to the event chosen by the programmer; logically ANDing a first input from said event register with a second input from the event selection register thereby producing a first AND output including a first plurality of outputs, and logically ORing together the first plurality of outputs, thereby producing a first OR output; responsive to said first OR output, generating the reset signal to the accumulator (36a, 36b). storing in an event selection register an event number which specifies an event chosen by a programmer so that the accumulator reset responds to the event chosen by the programmer; logically ANDing a first input from said event register with a second input from the event selection register thereby producing a first AND output including a first plurality of outputs, and logically ORing together the first plurality of outputs, thereby producing a first OR output; responsive to said first OR output, generating the reset signal to the accumulator (36a, 36b).
An ophthalmic gel, comprising therapeutically effective amount of gatifloxacin or its pharmaceutically acceptable salts, carbomer, sodium hyaluronate, and water.
An ink-jet recording method comprising: printing on a medium by ejecting thereon an ink that has a pH value of 8 or more and that contains at least a particulate colorant, an emulsion resin and a surfactant, the medium being prepared by providing at least one coat layer containing a pigment and a binder on at least one surface of a substrate containing cellulose pulp as a main component, wherein the printing is performed at a deposited ink amount of equal to or less than 15 g/m 2, and wherein the medium has a pH value of 8 or more at a paper surface, and the amount of pure water transferring onto a surface of the medium which surface has the coat layer after a contact time of 100 ms as measured with a dynamic scanning absorptometer is equal to or less than 1 mL/m 2 and the amount of pure water transferring onto the surface of the medium which surface has the coat layer after a contact time of 400 ms as measured with the dynamic scanning absorptometer is equal to or less than 35 mL/m 2. printing on a medium by ejecting thereon an ink that has a pH value of 8 or more and that contains at least a particulate colorant, an emulsion resin and a surfactant, the medium being prepared by providing at least one coat layer containing a pigment and a binder on at least one surface of a substrate containing cellulose pulp as a main component, wherein the printing is performed at a deposited ink amount of equal to or less than 15 g/m 2, and wherein the medium has a pH value of 8 or more at a paper surface, and the amount of pure water transferring onto a surface of the medium which surface has the coat layer after a contact time of 100 ms as measured with a dynamic scanning absorptometer is equal to or less than 1 mL/m 2 and the amount of pure water transferring onto the surface of the medium which surface has the coat layer after a contact time of 400 ms as measured with the dynamic scanning absorptometer is equal to or less than 35 mL/m 2.
Method for controlling a device for regrinding a steel edge of a ski with a ski holder and at least one grinding device which is displaceable under an advance relative to the ski holder in the longitudinal direction of the ski, and which is mounted rotatably about an axis extending in the advance direction (v) and is connected to a swivel drive which, with the aid of a control device, rotates the grinding device for setting the edge angle (α, β) as a function of its position in relation to the ski length, characterized in that the steel edge is ground in at least three grinding regions (23, 24, 25) with different edge angles (α, β), in that, on the basis of the actual length of the ski to be reground, the advance paths of the ski holder relative to the grinding device for the individual grinding regions (23, 24, 25) are determined for the different edge angles (α, β) from predefined grinding regions (23, 24, 25) which refer to a standard ski length, and in that the swivel drive for setting the angular position of the grinding device is controlled by the control device as a function of the advance path and the edge angles (α, β) associated with these advance paths.
A method of monitoring depletion of a coolant in a cooling system associated with at least one imaging modality (308A-N), the method comprising: receiving a set of signal values from a sensing unit associated with the cooling system, wherein the set of signal values correspond to one or more parameters of the cooling system, characterised by further comprising determining a class associated with the set of signal values using a trained artificial intelligence model; selecting a prediction model capable of predicting a depletion rate of the coolant in the cooling system from a plurality of predetermined prediction models based on the class associated with the set of signal values; computing a depletion rate of the coolant in the cooling system based on the set of signal values using the selected prediction model; determining a number of days remaining to refill the coolant in the cooling system based on the depletion rate of the coolant in the cooling system; and generating a warning signal on a graphical user interface, the warning signal indicative of a number of days remaining to refill the coolant in the cooling system. receiving a set of signal values from a sensing unit associated with the cooling system, wherein the set of signal values correspond to one or more parameters of the cooling system, characterised by further comprising determining a class associated with the set of signal values using a trained artificial intelligence model; selecting a prediction model capable of predicting a depletion rate of the coolant in the cooling system from a plurality of predetermined prediction models based on the class associated with the set of signal values; computing a depletion rate of the coolant in the cooling system based on the set of signal values using the selected prediction model; determining a number of days remaining to refill the coolant in the cooling system based on the depletion rate of the coolant in the cooling system; and generating a warning signal on a graphical user interface, the warning signal indicative of a number of days remaining to refill the coolant in the cooling system.
A photochromic article, wherein the photochromic article comprises: (a) a photochromic substrate having a fade half-life-A (T 1/2 -A); (b) a photochromic layer having a fade half-life-B (T 1/2 -B) and being positioned between a first surface of the photochromic substrate and a source of actinic radiation, wherein the T 1/2 -A is greater than the T 1/2 -B by a factor of at least 1.5, the T 1/2 -A and the T 1/2 -B each being measured at 23°C; or wherein the photochromic article comprises: (a) a photochromic substrate, wherein the photochromic substrate comprises a first surface defined by a first photochromic layer having a fade half-life-A (T 1/2 -A); (b) a second photochromic layer having a fade half-life-B (T 1/2 -B) and being positioned between the first photochromic layer and a source of actinic radiation, wherein the T 1/2-A is greater than the T 1/2 -B by a factor of at least 1.5, the T 1/2 -A and the T 1/2 -B each being measured at 23°C. (a) a photochromic substrate having a fade half-life-A (T 1/2 -A); (b) a photochromic layer having a fade half-life-B (T 1/2 -B) and being positioned between a first surface of the photochromic substrate and a source of actinic radiation, wherein the T 1/2 -A is greater than the T 1/2 -B by a factor of at least 1.5, the T 1/2 -A and the T 1/2 -B each being measured at 23°C; (a) a photochromic substrate, wherein the photochromic substrate comprises a first surface defined by a first photochromic layer having a fade half-life-A (T 1/2 -A); (b) a second photochromic layer having a fade half-life-B (T 1/2 -B) and being positioned between the first photochromic layer and a source of actinic radiation,
A linear actuator comprising an electric motor, a transmission, a spindle unit with a spindle and a spindle nut, an activation element secured to the spindle nut, the spindle being driven by the electric motor through the transmission, and a fixture (1,2) preferably a back fixture for mounting the linear actuator on a shaft having a cylindrical cross section, said fixture having an eye in the shape of a cylindrical through hole for the shaft the eye having an opening at a free side, by which the cross section of the fixture (1,2) with the opening at the free side of the eye is C-shaped and such that the fixture with the opening can be displaced sideways onto the shaft, characterized in that the fixture comprises a first part, and a second part, and a plastic bearing, wherein the first part connects with the second part, grooves (201, 202) disposed inside the first part and the second part connection structures disposed on the outer side of the plastic bearing, and the plastic bearing is secured inside the first part and second part through the connection structures and the grooves.
A lighting device having at least one semiconductor illuminant and a housing made of plastic, in which the at least one semiconductor illuminant is accommodated, wherein the housing has a housing lower part and a translucent housing upper part which extends at least partly into the housing lower part and which latches with the housing lower part, characterized in that a bearing edge of the housing upper part is provided with a tongue pointing downward, with which the housing upper part is inserted into the housing lower part, wherein the tongue is provided with a plurality of outwardly protruding ribs, and in that a catch depression which widens to the outside is arranged at an upper edge of the housing lower part, wherein a fluting is provided for in the catch depression, with which the outwardly protruding ribs latch.
A circuit arrangement for controlling a light-emitting diode device - hereafter abbreviated 'LED device' comprising: a modulator (IOCTRL; MCU) operable to receive a pulse width modulation signal (f DIMM) and a high frequency signal (f SW), and to generate a modulated high frequency signal (f CTRL); and a feedback circuit comprising an error amplifier and a compensation network (C2, R2, C3), wherein the feedback circuit is synchronously switched (302, 304, 306) from a first configuration to a second configuration during off times of the pulse width modulation signal (f DIMM), wherein the feedback circuit receives a feedback signal from the LED device and outputs an output signal fed to the modulator; an output capacitor (Cout) storing a voltage generated through the modulated high frequency signal to be supplied to the LED device characterized by a load switch (A, B, C, D) coupled with the LED device and configured to disconnect or bypass the LED device from the output capacitor (Cout) during the off times of the pulse width modulation signal thereby preventing the LED device from receiving the voltage stored in the output capacitor (Cout). a modulator (IOCTRL; MCU) operable to receive a pulse width modulation signal (f DIMM) and a high frequency signal (f SW), and to generate a modulated high frequency signal (f CTRL); and a feedback circuit comprising an error amplifier and a compensation network (C2, R2, C3), wherein the feedback circuit is synchronously switched (302, 304, 306) from a first configuration to a second configuration during off times of the pulse width modulation signal (f DIMM), wherein the feedback circuit receives a feedback signal from the LED device and outputs an output signal fed to the modulator; an output capacitor (Cout) storing a voltage generated through the modulated high frequency signal to be supplied to the LED device characterized by a load switch (A, B, C, D) coupled with the LED device and configured to disconnect or bypass the LED device from the output capacitor (Cout) during the off times of the pulse width modulation signal thereby preventing the LED device from receiving the voltage stored in the output capacitor (Cout).
A method for detecting a rotation of at least part of the torso of an occupant seated on a seat of a vehicle, for example a motor vehicle, the method being implemented by a detection system comprising a seat, at least two interdigitated capacitive sensors (C1, C2, C3, C4, C5) carried by the seat, and a controller connected to the interdigitated capacitive sensors, said controller comprising a memory containing at least one variation range of capacitive values defined for at least one interdigitated capacitive sensor; the method comprising a step of triggering a measurement phase comprising periods during which capacitive values are measured by the capacitive sensors; the method further comprising the following steps implemented by the controller during the measurement phase: - determining (32, 34, 36, 38, 40, 42), from the capacitive values measured, successively, a first stationary posture of the occupant during a first stationary period, a movement of at least a part of the occupant's torso, and a second stationary posture of the occupant during a second stationary period, - calculating (44, 46), for each capacitive sensor (C1, C3, C4), the variation between a value representative of the capacitive values measured during the first stationary period and a value representative of the capacitive values measured during the second stationary period, - if the variation calculated for said at least two capacitive sensors is comprised in said capacitive values ranges defined for said capacitive sensors, generating a detection signal. - determining (32, 34, 36, 38, 40, 42), from the capacitive values measured, successively, a first stationary posture of the occupant during a first stationary period, a movement of at least a part of the occupant's torso, and a second stationary posture of the occupant during a second stationary period, - calculating (44, 46), for each capacitive sensor (C1, C3, C4), the variation between a value representative of the capacitive values measured during the first stationary period and a value representative of the capacitive values measured during the second stationary period, - if the variation calculated for said at least two capacitive sensors is comprised in said capacitive values ranges defined for said capacitive sensors, generating a detection signal.
A method of making oxidation-resistant highly cross-linked blend of polymeric material and additive comprising: a) blending the polymeric material with an additive; b) consolidating the blend; c) irradiating the blend at a temperature below the melt with ionizing radiation, thereby forming a cross-linked blend of polymeric material and additive; d) mechanically deforming the cross-linked blend at a temperature below its melting point; and e) annealing the mechanically deformed crosslinked blend at a temperature below the melting point, thereby forming the oxidation-resistant highly cross-linked blend of polymeric material and additive. a) blending the polymeric material with an additive; b) consolidating the blend; c) irradiating the blend at a temperature below the melt with ionizing radiation, thereby forming a cross-linked blend of polymeric material and additive; d) mechanically deforming the cross-linked blend at a temperature below its melting point; and e) annealing the mechanically deformed crosslinked blend at a temperature below the melting point, thereby forming the oxidation-resistant highly cross-linked blend of polymeric material and additive.
Use of a radiation-curable resin composition comprising at least one isocyanate-functional compound (component A) which includes at least one radiation-curable group selected from the group consisting of vinyl, propenyl, allyl, vinyl ether, maleinyl, fumaryl, maleimide, dicyclopentadienyl, acrylamide and (meth)acrylate groups, and at least one polyol (component B) for the preparation of solar laminates comprising at least one solar cell having a front side, a rear side and rear side contacts connected thereto and a rear side foil, wherein the radiation-curable composition comprises at least one initiator (component E).
A method for preparing a training image for modeling an area of the subsoil by a multipoint geostatistical technique, the method comprising: - constructing a training image on a first three-dimensional grid of cells, the training image giving, for each cell of the first grid, a respective type of geological facies assigned to said cell; and - verifying representativeness of the training image with respect to well data obtained from observations conducted in a plurality of wells drilled in the area of the subsoil, the well data referring to a second three-dimensional grid of cells having a morphology adapted to estimated geological horizons in the area of the subsoil, the well data including the types of geological facies that are respectively estimated from the observations for the cells of the second grid located along the wells, characterized in that the verification of representativeness of the training image with respect to the well data includes an inter-well verification which comprises: - identifying two-dimensional patterns in the well data, each two-dimensional pattern being defined along a respective geological horizon and including, in a cell containing an intersection of a well with said geological horizon in the second grid, the type of geological facies estimated for said cell; and - counting, in the training image, occurrences of the two-dimensional patterns identified. - constructing a training image on a first three-dimensional grid of cells, the training image giving, for each cell of the first grid, a respective type of geological facies assigned to said cell; and - verifying representativeness of the training image with respect to well data obtained from observations conducted in a plurality of wells drilled in the area of the subsoil, the well data referring to a second three-dimensional grid of cells having a morphology adapted to estimated geological horizons in the area of the subsoil, the well data including the types of geological facies that are respectively estimated from the observations for the cells of the second grid located along the wells, characterized in that the verification of representativeness of the training image with respect to the well data includes an inter-well verification which comprises: - identifying two-dimensional patterns in the well data, each two-dimensional pattern being defined along a respective geological horizon and including, in a cell containing an intersection of a well with said geological horizon in the second grid, the type of geological facies estimated for said cell; and - counting, in the training image, occurrences of the two-dimensional patterns identified.
A dish washing machine comprising: a tub defining a washing space therein; a steam generator generating steam during a washing operation; a steam nozzle spraying steam, generated by the steam generator, into the washing space; characterized in that the dish washing machine further comprises a steam zone indicator visually distinguishing a region within the washing space associated with high-intensity steam. a tub defining a washing space therein; a steam generator generating steam during a washing operation; a steam nozzle spraying steam, generated by the steam generator, into the washing space; characterized in that the dish washing machine further comprises a steam zone indicator visually distinguishing a region within the washing space associated with high-intensity steam.