mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for the humidification of the air in a cabin of a passenger or cargo aircraft, the apparatus making available a conditioning fluid to be ejected into the cabin from an outlet nozzle, which conditioning fluid contains as a component water conducted in a water line and sprayed at a spraying point in close, in particular very close spatial association with the outlet nozzle, wherein the conditioning fluid includes an air flow conducted in an air supply line to the outlet nozzle, into which air flow the water is sprayed, characterized in that the apparatus comprises a first heating device for heating the water sprayed into the air flow, a second heating device independent of the first heating device for heating the air flow, an electronic control unit and a temperature sensor, which is adapted to detect an actual temperature of the air flow in the air supply line and/or of the water in the water line and to supply it to the electronic control unit, wherein the electronic control unit is adapted to control the first and/or the second heating device(s) (22, 24) such that the air flow and/or the water is/are supplied to the spraying point at a temperature, which guarantees that after evaporation of the water sprayed into the air flow the temperature of the conditioning fluid after emerging from the outlet nozzle corresponds to a desired effective temperature.
A method of manufacturing a composite enclosure for housing electronic devices comprising: winding composite material about a shaping structure; curing the composite material to create a cured composite hoop; stacking a plurality of composite layers in a mold; curing the plurality of composite layers to create a cured composite panel; and subsequent to the curing of the composite material and the curing of the plurality of composite layers, respectively, bonding the cured composite hoop with the cured composite panel to form the composite enclosure. winding composite material about a shaping structure; curing the composite material to create a cured composite hoop; stacking a plurality of composite layers in a mold; curing the plurality of composite layers to create a cured composite panel; and subsequent to the curing of the composite material and the curing of the plurality of composite layers, respectively, bonding the cured composite hoop with the cured composite panel to form the composite enclosure.
An apparatus for inspecting a part, comprising: (a) a flexible substrate with a first side for applying to a surface of a part; and (b) one or more micro-electro-mechanical system (MEMS) transducers mechanically coupled to a second side of the flexible substrate opposite the first side by one or more carbon nanotubes (CNTs); (c) wherein each of the one or more MEMS transducers is comprised of a cantilever, magnetic material deposited on the cantilever, and a solenoid positioned relative to the magnetic material to cause a deflection of the cantilever when energized; (d) wherein the one or more carbon nanotubes extend from the cantilever, so that the deflection of the cantilever results in movement of the one or more carbon nanotubes, which imparts a force to the flexible substrate to create ultrasound waves that permeate the part; and further comprising (e) means configured to operate one or more of the one or more MEMS transducers to generate the ultrasound waves and to receive returns from the ultrasound waves and, optionally, to interpret the returns for inspecting the part. (a) a flexible substrate with a first side for applying to a surface of a part; and (b) one or more micro-electro-mechanical system (MEMS) transducers mechanically coupled to a second side of the flexible substrate opposite the first side by one or more carbon nanotubes (CNTs); (c) wherein each of the one or more MEMS transducers is comprised of a cantilever, magnetic material deposited on the cantilever, and a solenoid positioned relative to the magnetic material to cause a deflection of the cantilever when energized; (d) wherein the one or more carbon nanotubes extend from the cantilever, so that the deflection of the cantilever results in movement of the one or more carbon nanotubes, which imparts a force to the flexible substrate to create ultrasound waves that permeate the part; and further comprising (e) means configured to operate one or more of the one or more MEMS transducers to generate the ultrasound waves and to receive returns from the ultrasound waves and, optionally, to interpret the returns for inspecting the part.
Base bleed comprising at least one housing and a pyrotechnic gas generator introduced therein, comprising a device which can close the base bleed, the device closing the base bleed when a gas pressure in the interior of the base bleed exceeds a gas pressure outside the base bleed, characterized in that the device comprises a frame having a cross-member (5.1) and a membrane is fastened to the cross-member (5.1), it being possible for wings or flaps (6.2) of the membrane to be swung into the base bleed.
A network infrastructure device wherein the network infrastructure device is a router, a switch, an access point and/or a hub comprising: an interface engine to receive a packet flow including a first pre-filter tag including information from implementation of a first subset of pre-filter rules selected from a set of pre-filter rules, said information comprising a first pre-filter result; and logic to implement a second subset of the set of the pre-filter rules on the packet flow to yield a second pre-filter result, wherein the second subset of pre-filter rules is different from the first subset of pre-filter rules; the network infrastructure device further comprising: a tagging engine to tag the packet flow with a second pre-filter tag including the second pre-filter result; a forwarding engine to determine an intermediate destination for the packet flow based on the first pre-filter tag and the second pre-filter result; wherein the intermediate destination is a further network infrastructure device, comprising a router, a switch, an access point and/or a hub, the further network infrastructure device implementing a third subset of pre-filter rules including additional pre-filter rules compared to the first subset and the second subset and wherein the forwarding engine selects the further network infrastructure device further based on the additional pre-filter rules. an interface engine to receive a packet flow including a first pre-filter tag including information from implementation of a first subset of pre-filter rules selected from a set of pre-filter rules, said information comprising a first pre-filter result; and logic to implement a second subset of the set of the pre-filter rules on the packet flow to yield a second pre-filter result, wherein the second subset of pre-filter rules is different from the first subset of pre-filter rules; the network infrastructure device further comprising: a tagging engine to tag the packet flow with a second pre-filter tag including the second pre-filter result; a forwarding engine to determine an intermediate destination for the packet flow based on the first pre-filter tag and the second pre-filter result; a tagging engine to tag the packet flow with a second pre-filter tag including the second pre-filter result; a forwarding engine to determine an intermediate destination for the packet flow based on the first pre-filter tag and the second pre-filter result; wherein the intermediate destination is a further network infrastructure device, comprising a router, a switch, an access point and/or a hub, the further network infrastructure device implementing a third subset of pre-filter rules including additional pre-filter rules compared to the first subset and the second subset and wherein the forwarding engine selects the further network infrastructure device further based on the additional pre-filter rules.
Control method for a heat pump system, notably for a motor vehicle, said system comprising a compressor for heating and compressing a refrigerant fluid, an internal heat exchanger forming a condenser in heating mode for heating internal air by exchange with the refrigerant fluid flowing from the compressor, an expansion valve for cooling the refrigerant fluid and an external heat exchanger forming an evaporator in heating mode for heating the refrigerant liquid flowing from the expansion valve by exchange with external air, an accumulator also being interposed between the external heat exchanger and the compressor for storing the refrigerant fluid before compression, the method being characterized in that it comprises the following steps: a) in heating mode, detecting the frosting of the external heat exchanger, b) determining (S11-S14) a data element (COMP1) representing the duration of the frosting of the heat exchanger, c) if the duration of the frosting of the external heat exchanger is greater than or equal to a first predetermined maximum duration (C 1), sending a command for defrosting the exchanger, and d) if a command for defrosting the exchanger is sent, starting (S16; S'16; S"26) an operation of defrosting the external heat exchanger and, according to a predefined principle, starting an operation of defrosting the accumulator (S26; S'16; S"26) by circulating a fluid compressed by the compressor in said external exchanger and said accumulator. a) in heating mode, detecting the frosting of the external heat exchanger, b) determining (S11-S14) a data element (COMP1) representing the duration of the frosting of the heat exchanger, c) if the duration of the frosting of the external heat exchanger is greater than or equal to a first predetermined maximum duration (C 1), sending a command for defrosting the exchanger, and d) if a command for defrosting the exchanger is sent, starting (S16; S'16; S"26) an operation of defrosting the external heat exchanger and, according to a predefined principle, starting an operation of defrosting the accumulator (S26; S'16; S"26) by circulating a fluid compressed by the compressor in said external exchanger and said accumulator.
Method for the security protection of a surface portion of a layer of an official document bearing inscriptions to be protected, wherein: - a transparent security layer is applied to said surface portion so as to cover said inscriptions to be protected, characterised in that: - there is chosen a transparent security layer comprising at least one semi-transparent printed image comprising at least one transparent binder and at least one thermochromic pigment adapted to change color when there is a predetermined temperature variation, - in a first state, named the non-activated state, at at least a first temperature, said semi-transparent printed image reveals at least one semi-transparent visible motif allowing said inscriptions to be protected to be seen through the image, said motif not being visible in a second state, named the activated state, at at least a second temperature which is different from the first temperature, - the proportion of thermochromic pigments in the binder is such that the semi-transparent image allows said inscriptions to be protected to be seen through the image when the thermochromic pigments are in the non-activated state. - a transparent security layer is applied to said surface portion so as to cover said inscriptions to be protected, - there is chosen a transparent security layer comprising at least one semi-transparent printed image comprising at least one transparent binder and at least one thermochromic pigment adapted to change color when there is a predetermined temperature variation, - in a first state, named the non-activated state, at at least a first temperature, said semi-transparent printed image reveals at least one semi-transparent visible motif allowing said inscriptions to be protected to be seen through the image, said motif not being visible in a second state, named the activated state, at at least a second temperature which is different from the first temperature, - the proportion of thermochromic pigments in the binder is such that the semi-transparent image allows said inscriptions to be protected to be seen through the image when the thermochromic pigments are in the non-activated state.
Breathing mask having a mask body, with at least one exhalation valve and with at least one inhalation valve (7, 8), with at least one filter module (9, 10) associated with the inhalation valve (7, 8), and with a push fit device (38, 39) for releasably attaching the filter module (9, 10) onto the mask body, the device having a reception recess (13, 14) for receiving the filter module (9, 10) at least in certain regions, characterised in that the reception recess (13, 14) is substantially configured as a cup-shape and presents, on two opposite side walls (21, 12; 23, 24) respectively, at least one guiding web projecting into the reception recess, wherein the guiding webs extend in parallel to each other, and in that the filter module (9, 10) presents, on two opposite side wall sections (34, 35) respectively, at least one guiding groove (36, 37) of the push fit device (38, 39) for respectively receiving one of the guiding webs.
Infiltration device, preferably for a blind drain system to be subterraneously installed, having a substantially hollow and at least in portions fluid-permeable structural body which is provided for reserving a volume in the soil through which a fluid which is intended for infiltration, preferably rain water, is conductible for the purpose of intermediate storage and infiltration, having a sedimentation installation for sedimentation of the suspended material contained in the fluid, which is disposed in the reserved volume, having a sedimentation portion of the fluid which is intended for infiltration, which is preferably configured as a trough, groove, or depression, and having a discharge portion by way of which the fluid may run off for infiltration, wherein the discharge portion has openings which are disposed at dissimilar spacings from the base of the sedimentation installation, wherein the discharge portion has a first row having at least two openings which in the longitudinal direction of the sedimentation installation are sequentially disposed at an identical spacing from the base of the sedimentation installation, defining a first plane, and wherein the discharge portion has a second row having openings which in the longitudinal direction of the sedimentation installation are sequentially disposed at an identical spacing from the base of the sedimentation installation, defining a second plane which is substantially parallel with the first plane, characterized in that the number of the openings which in each case define one plane increases as the spacing from the base increases counter to the direction of gravity.
An endoscopy auxiliary device, characterized by comprising: an insertion tube; and a clamper having a pipe and a connector, with the connector connected to the insertion tube, the pipe configured to clamp a capsule endoscopy, the pipe having an inner space configured to accommodate part of the capsule endoscopy, the pipe comprising: a first slit extending from a free end of the pipe for a first distance toward a connection end of the pipe; a second slit extending from the free end of the pipe for a second distance toward the connection end of the pipe; and a third slit extending from the free end of the pipe for a third distance toward the connection end of the pipe; wherein the first slit, the second slit and the third slit are separated from each other, characterized in that the first distance is greater than the second distance and the third distance. an insertion tube; and a clamper having a pipe and a connector, with the connector connected to the insertion tube, the pipe configured to clamp a capsule endoscopy, the pipe having an inner space configured to accommodate part of the capsule endoscopy, the pipe comprising: a first slit extending from a free end of the pipe for a first distance toward a connection end of the pipe; a second slit extending from the free end of the pipe for a second distance toward the connection end of the pipe; and a third slit extending from the free end of the pipe for a third distance toward the connection end of the pipe; a first slit extending from a free end of the pipe for a first distance toward a connection end of the pipe; a second slit extending from the free end of the pipe for a second distance toward the connection end of the pipe; and a third slit extending from the free end of the pipe for a third distance toward the connection end of the pipe; wherein the first slit, the second slit and the third slit are separated from each other, characterized in that the first distance is greater than the second distance and the third distance.
A method for synthetic modeling of a sound signal, wherein the method is performed by a processor of a computing device and comprises the following steps: - providing an input sound sample as a target signal, - analyzing the input sound sample to determine a model of a differential equation, wherein the differential equation is represented by at least one function, wherein the at least one function depends on at least one variable and at least one parameter, - determining the at least one function, the at least one parameter and an initial condition of the differential equation so that the differential equation provides a dynamic model of the target signal, and - determining the quality of the dynamic model using an optimality condition, characterized in that - at least one time-delayed version of the input sound sample is provided, and the at least one time-delayed version of the input sound sample is analyzed to determine the model of the differential equation and / or - a time derivative of the input sound sample is determined, and the time derivative of the input sound sample is analyzed to determine the model of the differential equation, wherein the quality of the model of the differential equation is determined by an optimality condition. - providing an input sound sample as a target signal, - analyzing the input sound sample to determine a model of a differential equation, wherein the differential equation is represented by at least one function, wherein the at least one function depends on at least one variable and at least one parameter, - determining the at least one function, the at least one parameter and an initial condition of the differential equation so that the differential equation provides a dynamic model of the target signal, and - determining the quality of the dynamic model using an optimality condition, - at least one time-delayed version of the input sound sample is provided, and the at least one time-delayed version of the input sound sample is analyzed to determine the model of the differential equation and / or - a time derivative of the input sound sample is determined, and the time derivative of the input sound sample is analyzed to determine the model of the differential equation, wherein the quality of the model of the differential equation is determined by an optimality condition.
A domestic air purifier system comprising a removable particulate filter, a fan or impeller and which is powered by a motor, an air duct through which air passes in an air flow direction and is purified, and said air duct comprising a duct wall, wherein a portion of said duct wall comprises a gas filter, the domestic air purifier system being characterized in that the gas filter comprises a duct surface which is flush with the duct wall.
A direct type backlight display module, comprising: a backlight module and a liquid crystal panel corresponding to each other; and a main control circuit connected to the backlight module and the liquid crystal panel, wherein: the backlight module comprises a back plate, a light emitting structure disposed on the back plate, a diffusion plate directly facing the light emitting structure, and an electromagnetic input module disposed between the light emitting structure and the liquid crystal panel; and the electromagnetic input module comprises an electromagnetic diaphragm, which is an electromagnetic plate arranged to cooperate with an electromagnetic pen, and an electromagnetic control circuit electrically connected to the electromagnetic diaphragm, and the electromagnetic diaphragm is connected to the main control circuit through the electromagnetic control circuit, the electromagnetic diaphragm is disposed between the light emitting structure and the liquid crystal panel, the electromagnetic diaphragm is disposed between the light emitting structure and the diffusion plate, characterised in that the electromagnetic diaphragm is transparent so as to have a transmittance greater than or equal to 50 %, in that a distance between the electromagnetic diaphragm and the light emitting structure is greater than or equal to 10 cm, and in that a silicon steel plate is disposed between the electromagnetic diaphragm and the light emitting structure. the backlight module comprises a back plate, a light emitting structure disposed on the back plate, a diffusion plate directly facing the light emitting structure, and an electromagnetic input module disposed between the light emitting structure and the liquid crystal panel; and the electromagnetic input module comprises an electromagnetic diaphragm, which is an electromagnetic plate arranged to cooperate with an electromagnetic pen, and an electromagnetic control circuit electrically connected to the electromagnetic diaphragm, and the electromagnetic diaphragm is connected to the main control circuit through the electromagnetic control circuit, the electromagnetic diaphragm is disposed between the light emitting structure and the liquid crystal panel, the electromagnetic diaphragm is disposed between the light emitting structure and the diffusion plate, characterised in that the electromagnetic diaphragm is transparent so as to have a transmittance greater than or equal to 50 %, in that a distance between the electromagnetic diaphragm and the light emitting structure is greater than or equal to 10 cm, and in that a silicon steel plate is disposed between the electromagnetic diaphragm and the light emitting structure.
A device for machining a workpiece (2, 13), comprising a robot which has an arm, wherein the robot holds and moves the workpiece (2, 13), wherein the robot has a drive unit (7, 19) which is suitable for fastening the workpiece in a clamping device, characterized in that a drive unit (7, 19) and at least one gripper (5, 6) are arranged simultaneously on the arm of the robot in order to use the drive unit and the at least one gripper one after the other, wherein at least one gripper (5, 6) is arranged laterally to the drive unit (7, 19), and wherein the gripper (5, 6) and the drive unit (7, 19) are arranged orthogonally to one another, wherein the drive unit has pins (20, 21) in each case on one side of a screwing tool, the pins being configured such that the pins can be aligned flush with bores (22, 23) on the clamping device, or bores are provided in the drive unit (7, 19) which bores cooperate with pins in the clamping device such that the pins (20, 21) slide into the bores (22, 23) and hold the drive unit firmly relative to the clamping device in order to relieve the stress on the robot arm.