mhurhangee/ep-ind-claims huggingface dataset:
A power indicator device of a thermoelectric generator of a watch, the indicator device comprising a first gas fluid reservoir, a second gas fluid reservoir, and at least one tubular conduit connecting the two reservoirs (2, 3), the first reservoir being intended to be placed on an upper surface of the thermoelectric generator in a watch case, while the second reservoir is intended to be placed on a lower surface of the thermoelectric generator in contact with the back of a watch case, the tubular conduit being of the capillary type and comprising in an intermediate portion a liquid forming a barrier to the gas fluid of the two reservoirs (2, 3) and allowing in a display portion in the intermediate portion, to provide an indication of the power of the generator by measuring the temperature difference of the two reservoirs (2, 3), the display portion being intended to be disposed in the watch case to be visible from the outside of the watch case.
An aqueous composition formulated for intranasal administration for use in the treatment of a disorder selected from the group consisting of an autism spectrum disorder, a social anxiety disorder, an obsessive-compulsive disorder, a social communication disorder, an attention deficit hyperactivity disorder, Prader-Willi syndrome, Timothy syndrome, Fragile-X syndrome, Rett syndrome, or Williams syndrome in an individual in need thereof, wherein the composition comprises between 8 μg and 1000 μg of an oxytocin peptide and between 0.11% to 1.65 % (w/v) of magnesium ions, wherein the molar ratio of the oxytocin peptide to the magnesium ions is 1:800 to 1:1600, and wherein the composition produces a synergistic effect when used in said treatment.
A process for the preparation of a compound of formula or a salt thereof, wherein a compound of formula or a salt thereof is hydrogenated in the presence of a catalyst comprising iridium; wherein the catalyst comprises iridium and a compound of formula wherein R 1 is hydrogen, iso-propyl, phenyl or benzyl; and wherein R 2 is phenyl, 3,5-di-methylphenyl or 3,5-di- tert -butyl-phenyl. wherein R 1 is hydrogen, iso-propyl, phenyl or benzyl; and wherein R 2 is phenyl, 3,5-di-methylphenyl or 3,5-di- tert -butyl-phenyl.
Method for manufacturing a flexible wear-resistant part (10; 110) of layered polyurethane and rubber, comprising the steps of: a) pouring into a first mould a quantity of polyurethane with a first hardness in order to form a first layer (13; 113); characterized by b) allowing the first layer of polyurethane to cure for a certain time for forming an intermediate product (13; 113) of polyurethane; c) placing the intermediate product (13; 113) into a second mould; d) adding a quantity of rubber with a second hardness which differs from the first hardness to the second mould; e) vulcanizing the rubber directly onto the intermediate polyurethane product (13; 113) to obtain adhesion to the intermediate product (13; 113) to form the wear-resistant part of layered polyurethane and rubber, whereby a vulcanization press is used and whereby the second mould is a compression transfer vulcanization mould intended to cooperate with the vulcanization press. a) pouring into a first mould a quantity of polyurethane with a first hardness in order to form a first layer (13; 113); characterized by b) allowing the first layer of polyurethane to cure for a certain time for forming an intermediate product (13; 113) of polyurethane; c) placing the intermediate product (13; 113) into a second mould; d) adding a quantity of rubber with a second hardness which differs from the first hardness to the second mould; e) vulcanizing the rubber directly onto the intermediate polyurethane product (13; 113) to obtain adhesion to the intermediate product (13; 113) to form the wear-resistant part of layered polyurethane and rubber, whereby a vulcanization press is used and whereby the second mould is a compression transfer vulcanization mould intended to cooperate with the vulcanization press.
Method of accessing at least one service previously subscribed to by a user, and accessible via at least one first communication network, said method comprising the following steps: - selection by a control device, of a second communication network, from among at least two possible communication networks; - transmission, by said control device, via said second communication network, of at least one identifier of said user, destined for a management entity of said first communication network; - reception, by said control device, of at least one configuration parameter of a device for implementing said service, delivered by said management entity; - configuration of said device for implementing said service, as a function of said configuration parameter, in such a way that it can implement said service by way of said first network, said method being characterized in that it comprises a step of adapting said at least one service to be implemented, said step taking account of at least one parameter representative of at least one access point for said first network. - selection by a control device, of a second communication network, from among at least two possible communication networks; - transmission, by said control device, via said second communication network, of at least one identifier of said user, destined for a management entity of said first communication network; - reception, by said control device, of at least one configuration parameter of a device for implementing said service, delivered by said management entity; - configuration of said device for implementing said service, as a function of said configuration parameter, in such a way that it can implement said service by way of said first network,
Method for continuous sterilization at high temperature of a dermocosmetic emulsion, characterized in that it comprises the following steps: a. pre-heating said emulsion at a pre-heating speed between 0.1°C.s -1 and 1° C.s -1 up to a pre-heating temperature T1, which temperature is at the stability limit of said emulsion; b. performing ultra-high temperature sterilization by infusion of said emulsion, thus pre-heated, which comprises: i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; c. cooling at a cooling speed being between 0.1°C.s -1 and 0.5° C.s -1 under agitation to a storage temperature T4. a. pre-heating said emulsion at a pre-heating speed between 0.1°C.s -1 and 1° C.s -1 up to a pre-heating temperature T1, which temperature is at the stability limit of said emulsion; b. performing ultra-high temperature sterilization by infusion of said emulsion, thus pre-heated, which comprises: i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; i. heating up to a sterilization temperature T2 ii. plateauing at the sterilization temperature; iii. cooling under vacuum at an end-of-sterilization temperature T3; c. cooling at a cooling speed being between 0.1°C.s -1 and 0.5° C.s -1 under agitation to a storage temperature T4.
A system comprising: a modeling engine to generate a linear predictive coding model of an audio signal; a frequency selection engine to select a dominant frequency in the audio signal by detecting a maximum in the spectrum of the linear predictive model based on a gradient of the spectrum of the linear predictive coding model; a first filter engine to extract the dominant frequency from the audio signal; a harmonics engine to generate a plurality of harmonics of the dominant frequency; and an insertion engine to insert the plurality of harmonics into an audio output corresponding to the audio signal, the audio output to be provided to an audio output device. a modeling engine to generate a linear predictive coding model of an audio signal; a frequency selection engine to select a dominant frequency in the audio signal by detecting a maximum in the spectrum of the linear predictive model based on a gradient of the spectrum of the linear predictive coding model; a first filter engine to extract the dominant frequency from the audio signal; a harmonics engine to generate a plurality of harmonics of the dominant frequency; and an insertion engine to insert the plurality of harmonics into an audio output corresponding to the audio signal, the audio output to be provided to an audio output device.
A surgical instrument for tightening a bone fixation member around bone, comprising: a body with a gripping portion extending from the body and configured to be grasped by a hand; a clamp (23, 25, 27, 29) for clamping a bone fixation member; a clamp carrier connected to and movably guided relative to the body, wherein the clamp (23, 25, 27, 29) is connected to and movably guided relative to the clamp carrier; and an actuator connected to and movably guided relative to the body, and configured to be operated by a hand; characterized in that the actuator is configured to move the clamp carrier via the clamp (23, 25, 27, 29), wherein the clamp (23, 25, 27, 29) is configured to be opened and/or closed by movement of the actuator while the clamp carrier remains stationary relative to the body. a body with a gripping portion extending from the body and configured to be grasped by a hand; a clamp (23, 25, 27, 29) for clamping a bone fixation member; a clamp carrier connected to and movably guided relative to the body, wherein the clamp (23, 25, 27, 29) is connected to and movably guided relative to the clamp carrier; and an actuator connected to and movably guided relative to the body, and configured to be operated by a hand; characterized in that the actuator is configured to move the clamp carrier via the clamp (23, 25, 27, 29), wherein the clamp (23, 25, 27, 29) is configured to be opened and/or closed by movement of the actuator while the clamp carrier remains stationary relative to the body.
A fault current limiter comprising a first magnetically saturable core, the first core including: a first leg; a second leg, with a first AC coil wound on the second leg; a third leg, with a second AC coil wound around the third leg, the first and second AC coils being wound in series and adapted to be connected to a first phase AC source, a fourth leg; wherein the first, second, third and fourth legs are arranged in order, wherein first ends of the first, second, third and fourth legs are joined by a first yoke and second ends of the first, second, third and fourth legs are joined by a second yoke; a first magnetic biasing unit arranged to produce a first closed magnetic circuit in the first leg and the second leg that has a first flux direction; and second magnetic biasing unit arranged to produce a second closed magnetic circuit in the fourth leg and the third leg that has a second flux direction, wherein the first flux direction opposes the second flux direction; wherein the first and second AC coils are arranged to produce a first closed AC magnetic circuit in the second and third legs in an AC flux direction that alternates with each AC half-cycle. a first leg; a second leg, with a first AC coil wound on the second leg; a third leg, with a second AC coil wound around the third leg, the first and second AC coils being wound in series and adapted to be connected to a first phase AC source, a fourth leg; wherein the first, second, third and fourth legs are arranged in order, wherein first ends of the first, second, third and fourth legs are joined by a first yoke and second ends of the first, second, third and fourth legs are joined by a second yoke; a first magnetic biasing unit arranged to produce a first closed magnetic circuit in the first leg and the second leg that has a first flux direction; and second magnetic biasing unit arranged to produce a second closed magnetic circuit in the fourth leg and the third leg that has a second flux direction, wherein the first flux direction opposes the second flux direction; wherein the first and second AC coils are arranged to produce a first closed AC magnetic circuit in the second and third legs in an AC flux direction that alternates with each AC half-cycle.
A catheter assembly comprising a catheter hub having an open proximal end and a distal end defining an interior cavity therebetween, with a catheter tube extending distally from the catheter hub distal end; and a rigid actuator secured to the catheter hub distal end and extending proximally in the interior cavity of the catheter hub from the catheter hub distal end to a free proximal end, the free proximal end of the actuator defining a barb.
Dairy farm system comprising: - a non-mobile milking system with a milking machine, and in particular a milking robot, for performing a milking on a dairy animal, - a milk receptacle that is removably fluidly connectible to the milking system and is arranged to receive, when connected to the milking system, milk from the milking, - a central milk tank, separate from the milking system, for storing milk from a plurality of milkings, - an automatic handling system for handling the milk receptacle, and arranged to disconnect the milk receptacle from the milking system after each milking and to move the milk receptacle from the milking system to the central milk tank, wherein at least one of the handling system, the milk receptacle and the central milk tank is arranged to transfer the milk from the milk receptacle to the central milk tank, wherein the handling system comprises a displaceable carrier for carrying the milk receptacle and for moving the milk receptacle to the central milk tank, wherein the handling system comprises a, preferably branched, guide rail system arranged between the milking system and the central milk tank, wherein the carrier is displaceable along the guide rail system, and/or wherein the carrier comprises a vehicle with propulsion device, in particular wheels or continuous tracks, which vehicle is arranged to move autonomously between the milking system and the milk tank. - a non-mobile milking system with a milking machine, and in particular a milking robot, for performing a milking on a dairy animal, - a milk receptacle that is removably fluidly connectible to the milking system and is arranged to receive, when connected to the milking system, milk from the milking, - a central milk tank, separate from the milking system, for storing milk from a plurality of milkings, - an automatic handling system for handling the milk receptacle, and arranged to disconnect the milk receptacle from the milking system after each milking and to move the milk receptacle from the milking system to the central milk tank,
Method for actuating a closure element arrangement, in particular of a motor vehicle, wherein the closure element arrangement has a closure element, a drive arrangement which is assigned to the closure element, and a control system with a controller and a sensor arrangement, wherein the sensor arrangement has at least one elongate distance sensor (7,8) with a sensor extent (9,10), wherein a distance A from a user B, which is located along the sensor extent (9,10) at a longitudinal position L, can be detected transversely with respect to the sensor extent (9,10) by means of the distance sensor (7,8), wherein the sensor measured values of the at least one distance sensor (7,8) are monitored by means of the controller within the scope of an operator control event monitoring operation to determine whether a predetermined operator control event occurs, and the drive arrangement is actuated as a function of the result of the operator control event monitoring operation, wherein at least two elongate sensor sections (7a,7b) run essentially one next to the other, of the at least one distance sensor are provided, said sensor sections (7a, 7b) being each configured per se to detect a distance A from a user B, characterized in that the sensor sections (7a,7b) have sensor configurations which change along the sensor extent, and in that the longitudinal position L of the user B is determined by means of a controller as a function of the sensor measured values of the at least two sensor sections (7a,7b), and in that the determination of the longitudinal position L of the user B is based on an arithmetic operation between the sensor measured values of two sensor sections (7a,7b).
Thermal control device for controlling the temperature of a heat source by means of transferring heat from the heat source to a heat sink by means of the circulation of a fluid in the device, said device comprising an evaporator collecting heat from the heat source, a condenser rejecting heat to the heat sink, and transport lines (3, 5) connecting the evaporator and the condenser, the fluid flowing through said transport lines (3, 5), wherein the device further comprises a valve located in one of the transport lines (3, 5), said valve opening and closing the flow of fluid in the transport line (3, 5) modifying the hydraulic resistance of said transport line (3, 5), the pressure drop in the circuit of transport lines (3,5) - valve - condenser being such that it enables to maintain the evaporator operation temperature (Top) substantially within a predetermined value, independent on the condenser temperature (Tc), characterized in that the valve further comprises a heater for effecting an active control of the evaporator operation temperature (Top).
Seal assembly for a piston rod, the seal assembly comprising: a container, an external seal adapted to be placed inside said container and on a piston rod facing an external environment; an internal seal adapted to be placed inside said container and on the rod facing a cylinder, wherein the container, the external seal and the internal seal define in cooperation with each other a chamber for the containment of barrier fluid, wherein the chamber has an inlet for the intake of barrier fluid and an outlet for the exit of barrier fluid; a recirculation circuit for the barrier fluid, the recirculation circuit being placed in fluid communication with the inlet and the outlet for recirculating the barrier fluid from the outlet back to the inlet; and a pressurizer device configured to provide a positive pressure difference between the pressure of the barrier fluid inside the chamber and the pressure of process fluid inside the cylinder; wherein the pressurizer device is configured to be installed coaxially with the piston rod; characterized in that the pressurizer device comprises a seal piston at least partially defining the chamber, and in that the chamber has a variable volume. a container, an external seal adapted to be placed inside said container and on a piston rod facing an external environment; an internal seal adapted to be placed inside said container and on the rod facing a cylinder, wherein the container, the external seal and the internal seal define in cooperation with each other a chamber for the containment of barrier fluid, wherein the chamber has an inlet for the intake of barrier fluid and an outlet for the exit of barrier fluid; a recirculation circuit for the barrier fluid, the recirculation circuit being placed in fluid communication with the inlet and the outlet for recirculating the barrier fluid from the outlet back to the inlet; and a pressurizer device configured to provide a positive pressure difference between the pressure of the barrier fluid inside the chamber and the pressure of process fluid inside the cylinder; wherein the pressurizer device is configured to be installed coaxially with the piston rod; characterized in that the pressurizer device comprises a seal piston at least partially defining the chamber, and in that the chamber has a variable volume.
A method for driving at least one switch of a power device, the method comprising: receiving one or more sensor signals from one or more sensors including a sensor signal indicating a voltage or current between a source and a drain of the at least one switch; determining one or more driving pulse parameters according to the one or more sensor signals, wherein the one or more driving pulse parameters include a driving pulse strength adjusted between an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and applying a driving pulse having the determined one or more driving pulse parameters to one or more control terminals respectively of the at least one switch. receiving one or more sensor signals from one or more sensors including a sensor signal indicating a voltage or current between a source and a drain of the at least one switch; determining one or more driving pulse parameters according to the one or more sensor signals, wherein the one or more driving pulse parameters include a driving pulse strength adjusted between an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and an upper pulse strength limit based on the voltage or current being below a first threshold, and a lower pulse strength limit based on the voltage or current being above a second threshold; wherein the upper pulse strength limit, determining the first threshold, is based on a maximum rated source-drain voltage of the switch not being exceeded by expected transient voltage and/or current spikes, on top of the voltage or current indicated by the sensor signal; and applying a driving pulse having the determined one or more driving pulse parameters to one or more control terminals respectively of the at least one switch.
A liquid detergent composition comprising: from 5 to 60%, by weight of the detergent composition, of a surfactant system, wherein the surfactant system comprises an anionic alkoxylated alkyl sulphate surfactant present at a level of 80% to 100%, by weight of the surfactant system, and from 0.1% to 5%, by weight of the composition, of encapsulates, wherein the encapsulates comprise a core and a wall at least partially surrounding the core, wherein the core comprises a benefit agent, and wherein the wall comprises a coating on an outer surface of the wall. from 5 to 60%, by weight of the detergent composition, of a surfactant system, wherein the surfactant system comprises an anionic alkoxylated alkyl sulphate surfactant present at a level of 80% to 100%, by weight of the surfactant system, and from 0.1% to 5%, by weight of the composition, of encapsulates, wherein the encapsulates comprise a core and a wall at least partially surrounding the core, wherein the core comprises a benefit agent, and wherein the wall comprises a coating on an outer surface of the wall. wherein the core comprises a benefit agent, and wherein the wall comprises a coating on an outer surface of the wall.