mhurhangee/ep-ind-claims huggingface dataset:
Method for the treatment of hair comprising the application to the hair of a composition, comprising at least two organic monoacids and at least one cellulosic polymer, and a step of heating the hair at a temperature higher than 100°C, wherein the monoacids are selected from compounds having the following formula their stereoisomers, their organic or mineral salts or their corresponding solvates: wherein X represents a carbon atom, a group P-OH, a group P-H or a group S=O and R represents an alkyl, alkenyl, aryl or aralkyl group with a linear, branched or cyclic alkyl group comprising from 1 to 20 carbon atoms, a linear, branched or cyclic alkenyl group comprising from 2 to 20 carbon atoms, an aryl or aralkyl group comprising from 6 to 20 carbon atoms, these groups being optionally substituted by one or more groups selected from halogen atoms and from the groups hydroxyl, trifluoromethyl, and alcoxy C1-C4, and wherein said cellulosic polymer is selected from non associative non ionic cellulosic polymer selected from (C 1 -C 4)alkylcelluloses, (poly)hydroxy(C 1 -C 4)alkylcelluloses; and (poly)hydroxy(C 1 -C 4)alkyl-(C 1 -C 4)alkylcelluloses. wherein X represents a carbon atom, a group P-OH, a group P-H or a group S=O and R represents an alkyl, alkenyl, aryl or aralkyl group with a linear, branched or cyclic alkyl group comprising from 1 to 20 carbon atoms, a linear, branched or cyclic alkenyl group comprising from 2 to 20 carbon atoms, an aryl or aralkyl group comprising from 6 to 20 carbon atoms, these groups being optionally substituted by one or more groups selected from halogen atoms and from the groups hydroxyl, trifluoromethyl, and alcoxy C1-C4, and wherein said cellulosic polymer is selected from non associative non ionic cellulosic polymer selected from (C 1 -C 4)alkylcelluloses, (poly)hydroxy(C 1 -C 4)alkylcelluloses; and (poly)hydroxy(C 1 -C 4)alkyl-(C 1 -C 4)alkylcelluloses.
A display device comprising: a display panel comprising corner portions (CS1, CS2, CS3, CS4) having cut patterns defined by cut portions formed between adjacent cut patterns, wherein the cut portions have parts of the display panel removed, and the cut patterns have no parts of the display panel removed, wherein the display panel comprises: a substrate; a light-emitting element comprising a pixel electrode, an emissive layer and a common electrode and disposed on the substrate in the cut pattern; a first inorganic encapsulation layer disposed on the common electrode in the cut pattern; an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern; an organic pattern disposed on the substrate in the cut portion; a dam disposed at edges of the cut patterns; and a dam hole formed on an inner side of the dam and having an undercut profile, the dam hole which disconnects the emissive layer and the common electrode from the cut portion. a display panel comprising corner portions (CS1, CS2, CS3, CS4) having cut patterns defined by cut portions formed between adjacent cut patterns, wherein the cut portions have parts of the display panel removed, and the cut patterns have no parts of the display panel removed, wherein the display panel comprises: a substrate; a light-emitting element comprising a pixel electrode, an emissive layer and a common electrode and disposed on the substrate in the cut pattern; a first inorganic encapsulation layer disposed on the common electrode in the cut pattern; an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern; an organic pattern disposed on the substrate in the cut portion; a dam disposed at edges of the cut patterns; and a dam hole formed on an inner side of the dam and having an undercut profile, the dam hole which disconnects the emissive layer and the common electrode from the cut portion. a substrate; a light-emitting element comprising a pixel electrode, an emissive layer and a common electrode and disposed on the substrate in the cut pattern; a first inorganic encapsulation layer disposed on the common electrode in the cut pattern; an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern; an organic pattern disposed on the substrate in the cut portion; a dam disposed at edges of the cut patterns; and a dam hole formed on an inner side of the dam and having an undercut profile, the dam hole which disconnects the emissive layer and the common electrode from the cut portion.
A granular product based on arginine or the salts thereof, comprising an internal core in which there is substantially concentrated the arginine or the salts thereof and a coating for covering and protecting the internal core, wherein the coating is formed by a lipidic matrix comprising a fraction by weight equal to or greater than 60% of glycerides of saturated fatty acids C16 and C18 and a fraction by weight of calcium stearate comprised between 1% and 10%.
Vehicle seat comprising a backrest element having a first contact surface which is arranged within a first imaginary plane, and a seat element having a second contact surface which is arranged within a second imaginary plane which is defined by a longitudinal axis and a width axis of the vehicle seat, wherein the first imaginary plane and the second imaginary plane intersect in an intersecting axis, wherein the backrest element is pivotable relative to the seat element about a rotational axis, wherein an inclination angle (α) of the backrest element extends between the first imaginary plane and a central axis which runs perpendicularly to the second imaginary plane, characterised in that, in a first position of the backrest element, a distance along the longitudinal axis between the rotational axis and the intersecting axis is at least 60 mm, wherein, in the first position of the backrest element, the inclination angle (α) is substantially 10°, wherein, when the backrest element is pivoted about the rotational axis, the seat element remains within the second imaginary plane and the intersecting axis is displaced along the longitudinal axis and thus the distance changes.
Method for operating a power converter as an inverter between a DC voltage, with a high potential and a low potential, and an AC voltage network, wherein for each AC voltage phase of the AC voltage network, the power converter has at least one half-bridge (B1, B2, B3) connected to the AC voltage phase with a high potential-side semiconductor switch (SP1, SP2, SP3) and a low potential-side semiconductor switch (SN1, SN2, SN3) and each semiconductor switch (SP1, SP2, SP3, SN1, SN2, SN3) is connected antiparallel to a diode (DP1, DP2, DP3, DN1, DN2, DN3), wherein - for each semiconductor switch (SP1, SP2, SP3, SN1, SN2, SN3), within an angular period of a phase angle (φ) of the AC voltage, at least one switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) is specified by way of a lower range limit and an upper range limit in each case, and - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) a pre-ignition angle (α) is determined, characterised in that - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) with the pre-ignition angle (α) a pre-quenching angle (β) is determined, - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2), an activation angular interval (A12, A13, A23, A21, A31, A32, A1, A2) is determined, the lower interval limit of which is formed by subtraction of the pre-ignition angle (α) from the lower range limit of the switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) and the upper interval limit of which is formed by subtraction of the pre-quenching angle (β) from the upper range limit of the switch angular range (W12, W13, W23, W21, W31, W32, W1, W2), and - each semiconductor switch (SP1, SP2, SP3, SN1, SN2, SN3) is switched on during each activation angular interval (A12, A13, A23, A21, A31, A32, A1, A2) determined for it. - for each semiconductor switch (SP1, SP2, SP3, SN1, SN2, SN3), within an angular period of a phase angle (φ) of the AC voltage, at least one switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) is specified by way of a lower range limit and an upper range limit in each case, and - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) a pre-ignition angle (α) is determined, - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) with the pre-ignition angle (α) a pre-quenching angle (β) is determined, - for each switch angular range (W12, W13, W23, W21, W31, W32, W1, W2), an activation angular interval (A12, A13, A23, A21, A31, A32, A1, A2) is determined, the lower interval limit of which is formed by subtraction of the pre-ignition angle (α) from the lower range limit of the switch angular range (W12, W13, W23, W21, W31, W32, W1, W2) and the upper interval limit of which is formed by subtraction of the pre-quenching angle (β) from the upper range limit of the switch angular range (W12, W13, W23, W21, W31, W32, W1, W2), and - each semiconductor switch (SP1, SP2, SP3, SN1, SN2, SN3) is switched on during each activation angular interval (A12, A13, A23, A21, A31, A32, A1, A2) determined for it.
A method of a transceiver pertaining to a mobile terminal, arranged to operate according to a Radio Access Technology, RAT, in a cellular communication system, the method comprising determining a position value for the transceiver pertaining to a specific cell; accessing a database based on the determined position value, wherein an optimized transceiver parameter set corresponding to the position value is acquired for providing optimisation within the RAT for improved operation in the cell, wherein the transceiver parameter set is arranged to adapt operation of the transceiver for the determined position within the RAT, wherein the transceiver parameter set comprises at least one of: a narrowband selectivity filter coefficients for suppressing interference from other transmitters that are interfering with the transceiver at certain places; an adapted baseband algorithm suppressing pulse wise interference from other transmitters that are interfering with the transceiver at certain places; or a decoder setting for reducing certain soft key values being affected by specific interference patterns that are interfering with the transceiver at certain places, and applying settings of the transceiver according to the acquired transceiver parameter set wherein the transceiver parameter set is used until hand over or cell reselection is made or a new geographical position is detected. a narrowband selectivity filter coefficients for suppressing interference from other transmitters that are interfering with the transceiver at certain places; an adapted baseband algorithm suppressing pulse wise interference from other transmitters that are interfering with the transceiver at certain places; or a decoder setting for reducing certain soft key values being affected by specific interference patterns that are interfering with the transceiver at certain places, and
Method for testing new material compositions for powder bed-based laser melting or laser sintering, in which - an installation module is provided which consists of a process chamber with a building space with a movable build platform, with a powder deposition device, with a powder reservoir, with at least one inlet and one outlet for an inert gas, with drives for moving the build platform, the powder reservoir and the powder application, and with a window for coupling processing laser radiation above the build platform, wherein the build platform has a surface area ≤ 50 cm 2, - the installation module is inserted in a plant for powder bed-based laser melting or laser sintering having a process chamber with a larger building space with movable build platform and fixed therein in such a way that a laser processing system of the plant can be used to process the to be tested material composition in the building space of the installation module, and - the to be tested material composition is processed in the building space of the installation module using the laser processing system of the plant to produce a test specimen, and wherein the installation module is inserted at the location of an inlet window of the process chamber of the plant and fixed therein. - an installation module is provided which consists of a process chamber with a building space with a movable build platform, with a powder deposition device, with a powder reservoir, with at least one inlet and one outlet for an inert gas, with drives for moving the build platform, the powder reservoir and the powder application, and with a window for coupling processing laser radiation above the build platform, wherein the build platform has a surface area ≤ 50 cm 2, - the installation module is inserted in a plant for powder bed-based laser melting or laser sintering having a process chamber with a larger building space with movable build platform and fixed therein in such a way that a laser processing system of the plant can be used to process the to be tested material composition in the building space of the installation module, and - the to be tested material composition is processed in the building space of the installation module using the laser processing system of the plant to produce a test specimen, and wherein the installation module is inserted at the location of an inlet window of the process chamber of the plant and fixed therein.
An atomizer, characterized by comprising: an atomizing body, an atomizing base disposed at one end of the atomizing body, and a fixing member installed outside the atomizing base and connected with the atomizing body; wherein the atomizing base is fixed in the atomizing body by the fixing member, and the fixing member is made of a metal material that can be adsorbed by a magnet and comprises a tabular main body portion corresponding to the atomizing base.
An encoded information reading, EIR, terminal comprising: a microprocessor electrically coupled to a system bus; a memory communicatively coupled to said microprocessor; an EIR device, said EIR device configured to perform at least one of outputting raw message data containing an encoded message and outputting decoded message data corresponding to an encoded message; and a wireless communication interface configured to support at least two wireless communication protocols; wherein said EIR terminal is configured to execute a wireless communication protocol selector software program, said wireless communication protocol selector software program configured to optimize a value of a user-defined criterion in order to dynamically select at least one of a wireless communication network, a wireless communication protocol, and a parameter of a wireless communication protocol, wherein said value of the user-defined criterion is calculated based on at least one of: a network status, a communication quality, a signal strength, a service cost, a bandwidth, a user preference, and a communication channel throughput. a microprocessor electrically coupled to a system bus; a memory communicatively coupled to said microprocessor; an EIR device, said EIR device configured to perform at least one of outputting raw message data containing an encoded message and outputting decoded message data corresponding to an encoded message; and a wireless communication interface configured to support at least two wireless communication protocols; wherein said EIR terminal is configured to execute a wireless communication protocol selector software program, said wireless communication protocol selector software program configured to optimize a value of a user-defined criterion in order to dynamically select at least one of a wireless communication network, a wireless communication protocol, and a parameter of a wireless communication protocol, wherein said value of the user-defined criterion is calculated based on at least one of: a network status, a communication quality, a signal strength, a service cost, a bandwidth, a user preference, and a communication channel throughput.
A motor stator comprising a stator core and two stator windings wound around the stator core, wherein the stator core comprises two opposing poles and a yoke connected between the poles, the yoke comprises a bottom and two branches extending from the bottom, the two stator windings are respectively wound around two winding brackets that are attached around the two branches, each winding bracket including a tubular portion and end walls extending outwardly from opposite ends of the tubular portion, a winding space being formed between a radial outer surface of the tubular portion and axially opposing surfaces of the two end walls for receiving the stator windings; wherein the two stator windings are respectively formed by winding two separate electric wires, each electric wire has a winding starting end and a winding finishing end, the two winding starting ends of the two stator windings are disposed at inner layers of the stator windings, and the two winding finishing ends are disposed at outer layers of the stator windings, and characterized in that the end walls of the two winding brackets at the side where the winding starting ends are disposed each form a wire guiding slot, an isolating wall is formed between the wire guiding slot and the winding space at an inside of the winding bracket, the isolating wall extending to the outer surface of a tubular portion of the winding bracket, the winding starting ends of the two stator windings being routed from an outside of the winding brackets and being blocked by the isolating wall so as not to enter the winding space until reaching the outer surface of the tubular portion.
Device for monitoring the operation of an HVAC system (12; 212; 312°; 412), i.e. a system carrying out at least one function from a heating function, a ventilation function, an air-treatment function and an air-conditioning function, the device comprising: - first means for acquiring values of measured quantities associated with the HVAC system (12; 212; 312°; 412), - a module for estimating, depending on the acquired values of the measured quantities and using a neural network, the value of at least one parameter which is representative of the operation of the HVAC system (12; 212; 312°; 412), each measured quantity being an input variable of the neural network and each representative parameter being an output variable of the neural network, - a module for performing diagnostics on the HVAC system, the diagnostics module being designed to calculate the probabilities of faults in the HVAC system (12; 212; 312°; 412) using a Bayesian network, the faults being predefined, each input variable of the Bayesian network being associated with a relevant representative parameter and each probability of a relevant fault being an output variable of the Bayesian network, - second means for acquiring a measured value of each parameter which is representative of the operation of the HVAC system (12; 212; 312°; 412), and - a module for comparing, for each representative parameter, the measured value with the estimated values, the input values of the Bayesian network corresponding to the result of the comparison, for each representative value, between its measured value and its estimated value. - first means for acquiring values of measured quantities associated with the HVAC system (12; 212; 312°; 412), - a module for estimating, depending on the acquired values of the measured quantities and using a neural network, the value of at least one parameter which is representative of the operation of the HVAC system (12; 212; 312°; 412), each measured quantity being an input variable of the neural network and each representative parameter being an output variable of the neural network, - a module for performing diagnostics on the HVAC system, the diagnostics module being designed to calculate the probabilities of faults in the HVAC system (12; 212; 312°; 412) using a Bayesian network, the faults being predefined, each input variable of the Bayesian network being associated with a relevant representative parameter and each probability of a relevant fault being an output variable of the Bayesian network, - second means for acquiring a measured value of each parameter which is representative of the operation of the HVAC system (12; 212; 312°; 412), and - a module for comparing, for each representative parameter, the measured value with the estimated values,
An organic/inorganic composite separator, comprising: (a) a polyolefin porous substrate having pores; and (b) a porous active layer containing a mixture of inorganic particles and a binder polymer, with which at least one surface of the polyolefin porous substrate is coated, wherein the porous active layer has a peeling force of 4.90 N/m (5 gf/cm) or above, and a thermal shrinkage of the separator after being left alone at 150[deg.]C for 1 hour is 50% or below in a machine direction or in a transverse direction, wherein the binder polymer is a mixture of a first binder polymer having a contact angle to a water drop of 70[deg.] to 140[deg.] and a second binder polymer having a contact angle to a water drop of 1 [deg.] to 69[deg.], wherein the first binder polymer is any one polymer or a mixture of at least two polymers selected from the group consisting of polyvinylidene fluoride, polyvinylidene fluoride-co-hexafluoropropylene, polyvinylidene fluoride-co-trichloroethylene, polymethylmethacrylate, polyacrylonitrile, polyvinylacetate, polyethylene-co-vinyl acetate, polyimide and polyethylene oxide, and wherein the second binder polymer has at least one polar group selected from the group consisting of hydroxyl group (-OH), carboxyl group (-COOH), maleic anhydride group (-COOOC-), sulphonate group (-S03H) and pyrrolidone group (-NCO-). (a) a polyolefin porous substrate having pores; and (b) a porous active layer containing a mixture of inorganic particles and a binder polymer, with which at least one surface of the polyolefin porous substrate is coated, wherein the porous active layer has a peeling force of 4.90 N/m (5 gf/cm) or above, and a thermal shrinkage of the separator after being left alone at 150[deg.]C for 1 hour is 50% or below in a machine direction or in a transverse direction,