mhurhangee/ep-ind-claims huggingface dataset:
An evaporator assembly fluidically connectable to a refrigerant fluid circulation circuit and to a cooling circuit of an operating unit, preferably a battery pack, in which a cooling liquid included in a vehicle flows, wherein the evaporator assembly is suitable for performing heat exchange operations between the refrigerant fluid and the cooling liquid, wherein the evaporator assembly is suitable for managing the physical properties, in particular the temperature, of the refrigerant fluid, wherein the evaporator assembly comprises a main axis (X-X), and a longitudinal axis (Y-Y) and a transverse axis (Z-Z) orthogonal to the main axis (X-X), and comprises: i) a heat exchanger, in which the refrigerant fluid and the cooling liquid are suitable for flowing; ii) a lamination member connectable to a conduit of the refrigerant fluid circulation circuit to receive the refrigerant fluid in the liquid state; wherein the evaporator assembly is characterized by the fact that it also comprises: iii) a base body, having a substantially planar extension along the longitudinal axis (Y-Y) and the transverse axis (Z-Z) comprising, along the main axis (X-X), a first fluid region and a second fluid region (40"), wherein the heat exchanger and the lamination member are fluidly connected to the base body, wherein the base body comprises: - a body inlet mouth fluidly connecting the lamination member and the first fluid region; - an exchanger inlet mouth fluidly connecting the first fluid region and the heat exchanger; - an exchanger outlet mouth fluidly connecting the heat exchanger and the second fluid region (40"); - a body outlet mouth fluidly connected to the second fluid region (40") and connectable to a conduit of the refrigerant fluid circulation circuit. i) a heat exchanger, in which the refrigerant fluid and the cooling liquid are suitable for flowing; ii) a lamination member connectable to a conduit of the refrigerant fluid circulation circuit to receive the refrigerant fluid in the liquid state; - a body inlet mouth fluidly connecting the lamination member and the first fluid region; - an exchanger inlet mouth fluidly connecting the first fluid region and the heat exchanger; - an exchanger outlet mouth fluidly connecting the heat exchanger and the second fluid region (40"); - a body outlet mouth fluidly connected to the second fluid region (40") and connectable to a conduit of the refrigerant fluid circulation circuit.
An assembly comprising - a device for transporting fluid having a lumen and a connector part, - at least one light source configured to emit light having disinfecting/sterilizing effect, and - a separate unit; where the light source comprises: - a housing comprising a light emitting unit emitting light having disinfecting/sterilizing effect and a connector part; characterized in that the separate unit comprises: - an optical window made of UVC transparent polymers and being transparent for light emitted from the light emitting unit, a first coupling part and a second coupling part comprising respective releasable gripping and/or fastening mean(s), where the first coupling part during use is attached to the connector part of the light source, and the second coupling part during use is attached to the connector part of the device, such that the device is in complete extension of the light source with no overlap meaning that the light source will emit light on the end parts of the device while the device will not touch the light source due to the optical window separating the device from the light source, and the first coupling part is located at one side of the optical window and the second coupling part is located on the other side of the optical window with no overlap of the first and second coupling part of the separate unit, when disinfection/sterilization of the device takes place. - a device for transporting fluid having a lumen and a connector part, - at least one light source configured to emit light having disinfecting/sterilizing effect, and - a separate unit; - a housing comprising a light emitting unit emitting light having disinfecting/sterilizing effect and a connector part; characterized in that the separate unit comprises: - an optical window made of UVC transparent polymers and being transparent for light emitted from the light emitting unit, a first coupling part and a second coupling part comprising respective releasable gripping and/or fastening mean(s), where the first coupling part during use is attached to the connector part of the light source, and the second coupling part during use is attached to the connector part of the device, such that the device is in complete extension of the light source with no overlap meaning that the light source will emit light on the end parts of the device while the device will not touch the light source due to the optical window separating the device from the light source, and the first coupling part is located at one side of the optical window and the second coupling part is located on the other side of the optical window with no overlap of the first and second coupling part of the separate unit, when disinfection/sterilization of the device takes place. - an optical window made of UVC transparent polymers and being transparent for light emitted from the light emitting unit,
A method for filtering an initial 3D image, in which each pixel of coordinates (u, v) is associated with a 3D point P(u, v), comprising the following steps: - defining a local 3D analysis zone S(P(u, v)) for each 3D point P(u, v) that is associated with each pixel of coordinates (u, v) of the initial image; - generating a spatial coherence image for the set of 3D points associated with the set of pixels of coordinates (u, v) of the initial 3D image, on the basis of a spatial coherence value Cs(u, v) measured for each 3D point P(u, v), the spatial coherence value being associated with a number of 3D points contained in the local analysis zone of said point; - generating a geometrical reality image for the set of 3D points associated with the set of pixels of coordinates (u, v) of the initial 3D image, on the basis of a geometrical reality value Rg(u, v) measured for a pixel of coordinates (u, v) associated with each 3D point, the geometrical reality value being associated with the area of the apparent surface of the local 3D analysis zone S(P(u, v)) in the image of its projection into an empty scene; - generating a binary image on the basis of spatial coherence and geometrical reality images, where each point of the binary image is classed as a scene point or as a noise point according to the spatial coherence and geometrical reality values obtained for this point; and - combining the binary image with the initial 3D image in order to obtain a denoised image. - defining a local 3D analysis zone S(P(u, v)) for each 3D point P(u, v) that is associated with each pixel of coordinates (u, v) of the initial image; - generating a spatial coherence image for the set of 3D points associated with the set of pixels of coordinates (u, v) of the initial 3D image, on the basis of a spatial coherence value Cs(u, v) measured for each 3D point P(u, v), the spatial coherence value being associated with a number of 3D points contained in the local analysis zone of said point; - generating a geometrical reality image for the set of 3D points associated with the set of pixels of coordinates (u, v) of the initial 3D image, on the basis of a geometrical reality value Rg(u, v) measured for a pixel of coordinates (u, v) associated with each 3D point, the geometrical reality value being associated with the area of the apparent surface of the local 3D analysis zone S(P(u, v)) in the image of its projection into an empty scene; - generating a binary image on the basis of spatial coherence and geometrical reality images, where each point of the binary image is classed as a scene point or as a noise point according to the spatial coherence and geometrical reality values obtained for this point; and - combining the binary image with the initial 3D image in order to obtain a denoised image.
An image pickup apparatus capable of generating a restored image from an original image for improving image sharpness, the image pickup apparatus comprising: an image pickup element configured to photoelectrically convert an object image formed via an image pickup optical system to obtain the original image, characterized by an image processing unit configured to generate the restored image from the original image by using an image restoration filter common to a first image height and a second image height, the first image height indicating a first position in the original image and the second image height indicating a second position in the original image different from the first position, when the F number is not less than the predetermined value, and configured not to perform image restoration processing when the F number is less than the predetermined value. an image pickup element configured to photoelectrically convert an object image formed via an image pickup optical system to obtain the original image, characterized by an image processing unit configured to generate the restored image from the original image by using an image restoration filter common to a first image height and a second image height, the first image height indicating a first position in the original image and the second image height indicating a second position in the original image different from the first position, when the F number is not less than the predetermined value, and configured not to perform image restoration processing when the F number is less than the predetermined value.
A semiconductor device comprising: a substrate; middle layers (240, 250, 260) disposed on the substrate and being formed of a repeating sequence of stacked layers, the sequence comprising a first semiconductor layer comprising Al x Ga 1-x N (0≤x≤1), and a second semiconductor layer disposed on the first semiconductor layer and comprising undoped gallium nitride (GaN), and a third semiconductor layer comprising GaN disposed on the second semiconductor layer, a drive unit (270, 300) disposed over the middle layers wherein the drive unit comprises a first conduction type semiconductor layer, a second conduction type semiconductor layer, and an active layer between the first and second conduction type semiconductor layers, wherein the first semiconductor layer and the third semiconductor layer are doped with a P type dopant, and wherein the third semiconductor layer has a thickness in a range of 10 to 100 nm. a substrate; middle layers (240, 250, 260) disposed on the substrate and being formed of a repeating sequence of stacked layers, the sequence comprising a first semiconductor layer comprising Al x Ga 1-x N (0≤x≤1), and a second semiconductor layer disposed on the first semiconductor layer and comprising undoped gallium nitride (GaN), and a third semiconductor layer comprising GaN disposed on the second semiconductor layer, a drive unit (270, 300) disposed over the middle layers wherein the drive unit comprises a first conduction type semiconductor layer, a second conduction type semiconductor layer, and an active layer between the first and second conduction type semiconductor layers, wherein the first semiconductor layer and the third semiconductor layer are doped with a P type dopant, and wherein the third semiconductor layer has a thickness in a range of 10 to 100 nm.
A condensing unit for a water heating boiler having a feed connector and a return connector for system water, the condensing unit comprising a body having a heat exchanger tank contacting a condenser flue having an inlet and an outlet for connection to a boiler exhaust gas flue, the heat exchanger tank having an inlet for connection to a system return pipe and an outlet for connection to the boiler return connector wherein the condenser flue comprises an elongate enclosed channel and a removable baffle assembly mounted therein, characterised in that the baffle assembly comprises a longitudinally split tube in two parts to fit within the channel and in which at least one tube part carries inwardly directed combustion gas contacting baffle plates.
Busbar connector for electrically conductively connecting lines of comb-like current-carrying profiles which are accessible via grooves which are laterally delimited by comb webs of the current-carrying profile, wherein the busbar connector has plug-in contacts which are designed for insertion into a respective groove of a current-carrying profile, wherein the plug-in contacts each have a contact lug, a spring contact tongue which protrudes from the plane of the contact lug, and a stop face which protrudes from the plane of the contact lug, wherein the spring contact tongue is arranged in the space between the stop face and the free end of the contact lug, which free end can be inserted into the respective groove, characterized in that the spring contact tongue extends, by way of its freely moving end, in the direction of the stop face and can grip, by way of a clamping edge at the free end of the spring contact tongue, the line which is to be clamped.
An electro-optical apparatus (100, 100a, 100b) comprising: a first substrate having a first electrode on one surface side; a second substrate having a second electrode on one surface side and disposed facing the first substrate; an electrolyte layer including material used for electrolytic deposition and disposed between the first electrode and the second electrode; wherein each of the first electrode and the second electrode has irregularities on one surface side which is in contact with the electrolyte layer, characterized in that roughness Ra of the one surface side of the first electrode is between 0.4 μm and 0.8 μm, and roughness Ra of the one surface side of the second electrode is approximately one order of magnitude smaller than the roughness Ra of the one surface side of the first electrode and is between 0.02 μm and 0.1 μm. a first substrate having a first electrode on one surface side; a second substrate having a second electrode on one surface side and disposed facing the first substrate; an electrolyte layer including material used for electrolytic deposition and disposed between the first electrode and the second electrode; wherein each of the first electrode and the second electrode has irregularities on one surface side which is in contact with the electrolyte layer, characterized in that roughness Ra of the one surface side of the first electrode is between 0.4 μm and 0.8 μm, and roughness Ra of the one surface side of the second electrode is approximately one order of magnitude smaller than the roughness Ra of the one surface side of the first electrode and is between 0.02 μm and 0.1 μm.
Embedded pole part for medium or high voltage use, including a vacuum interrupter which is embedded into an insulating resin, wherein a current and/or voltage sensor with sensor housing is integrated inside the insulating resin, characterized in that a metal grid is implemented into the insulating resin, which is arranged between the sensor housing of the current and/or voltage sensor and the outer surface of the insulating resin.
A dynamic circuit (100, 200), comprising: a dynamic node (102, 202); a first charge circuit configured to charge the dynamic node (102, 202) to a logic high voltage during a pre-charge interval; and a level detector circuit, coupled to the dynamic node (102, 202), configured to monitor a voltage of the dynamic node (102, 202) and to control the first charge circuit to stop charging the dynamic node (102, 202) when the voltage of the dynamic node (102, 202) reaches or exceeds a reference voltage (VREF1,..., VREF(n)); and a pull-down logic circuitry (104, 222) coupled to the dynamic node (102, 202); characterized by a second charge circuit configured such that a charge rate delivered by the second charge circuit to the dynamic node (102, 202) after the pre-charge interval is selectable based on the logic high voltage and/or a leakage current of the pull-down logic circuitry (104, 222). a dynamic node (102, 202); a first charge circuit configured to charge the dynamic node (102, 202) to a logic high voltage during a pre-charge interval; and a level detector circuit, coupled to the dynamic node (102, 202), configured to monitor a voltage of the dynamic node (102, 202) and to control the first charge circuit to stop charging the dynamic node (102, 202) when the voltage of the dynamic node (102, 202) reaches or exceeds a reference voltage (VREF1,..., VREF(n)); and a pull-down logic circuitry (104, 222) coupled to the dynamic node (102, 202); characterized by a second charge circuit configured such that a charge rate delivered by the second charge circuit to the dynamic node (102, 202) after the pre-charge interval is selectable based on the logic high voltage and/or a leakage current of the pull-down logic circuitry (104, 222).
Adhesive for percutaneous absorption comprising a copolymer in which the constituents are methoxyethyl acrylate 40-60 wt%, lauryl (meth)acrylate 30-40 wt% and a polar monomer 10-25 wt% only, wherein the polar monomer is N-vinyl-2-Pyrrolidone, and one or more selected from a set comprising acrylic acid and 2-hydroxyethyl acrylate, characterized in that the Content of N-vinyl-2-Pyrrolidone is 5 wt% or more in the aforementioned copolymer.
Method for automatic sea lice monitoring in fish aquaculture, the method comprising: - submerging a camera in a sea pen comprising fish, - using the camera to make an image of at least one of said fish, - analysing the image to differentiate between individual sea lice present on the fish and the fish itself, - assessing the number and the size of sea lice present on the fish, and thereby obtaining information about the stage of life of sea lice present on the fish, characterised in that the camera is attached to a device (10, 100) for guiding the fish along an imaging track, the camera being directed to the track, wherein the device comprising an enclosure that confines the track, and wherein the camera is attached to the enclosure. - submerging a camera in a sea pen comprising fish, - using the camera to make an image of at least one of said fish, - analysing the image to differentiate between individual sea lice present on the fish and the fish itself, - assessing the number and the size of sea lice present on the fish, and thereby obtaining information about the stage of life of sea lice present on the fish,
A smart card comprising: a card body; a first set of eight (A1 to A8) contact pads disposed on a first surface of the card body; a second set of eight (B1 to B8) contact pads disposed on the first surface; the first and second set of contact pads configured to simultaneously electrically engage a first socket of a first host device and exchange data with the host device in a first configuration; and control circuitry communicatively coupled to the first and second sets of contact pads and operable to control the exchange of data with the host device; wherein the control circuitry is configured to operate with the host device to identify whether the smart card should operate in a first configuration, associated with exchanging data with the contact pads of the smart card using 16 pins or a second configuration, associated with exchanging data with the contact pads of the smart card using 8 pins; characterised in that in the first configuration, the smart card is configured to receive an audio/video input stream from the host device, decrypt the stream and initiate transmission of the decrypted stream to the host device; and wherein, in the second configuration, the smart card is configured to receive encrypted key information from the host device, decrypt the key information and initiate transmission of the decrypted key information to the host device. a card body; a first set of eight (A1 to A8) contact pads disposed on a first surface of the card body; a second set of eight (B1 to B8) contact pads disposed on the first surface; the first and second set of contact pads configured to simultaneously electrically engage a first socket of a first host device and exchange data with the host device in a first configuration; and control circuitry communicatively coupled to the first and second sets of contact pads and operable to control the exchange of data with the host device; wherein the control circuitry is configured to operate with the host device to identify whether the smart card should operate in a first configuration, associated with exchanging data with the contact pads of the smart card using 16 pins or a second configuration, associated with exchanging data with the contact pads of the smart card using 8 pins; characterised in that in the first configuration, the smart card is configured to receive an audio/video input stream from the host device, decrypt the stream and initiate transmission of the decrypted stream to the host device; and wherein, in the second configuration, the smart card is configured to receive encrypted key information from the host device, decrypt the key information and initiate transmission of the decrypted key information to the host device.
A rodent trap comprising: a cage having an entrance configured to allow a rodent to enter the cage; a control circuit board; discharge plates on an inner surface of the cage and spaced apart from each other, wherein the control circuit board is configured to establish a voltage between the discharge plates; a first infrared sensor comprising a first infrared emitter and a first infrared receiver, wherein the rodent prevents an infrared light beam emitted by the first infrared emitter from reaching the first infrared receiver when the rodent steps on adjacent pair of the discharge plates; characterized by a second infrared sensor comprising a second infrared emitter and a second infrared receiver placed apart from the first infrared sensor. a cage having an entrance configured to allow a rodent to enter the cage; a control circuit board; discharge plates on an inner surface of the cage and spaced apart from each other, wherein the control circuit board is configured to establish a voltage between the discharge plates; a first infrared sensor comprising a first infrared emitter and a first infrared receiver, wherein the rodent prevents an infrared light beam emitted by the first infrared emitter from reaching the first infrared receiver when the rodent steps on adjacent pair of the discharge plates; characterized by a second infrared sensor comprising a second infrared emitter and a second infrared receiver placed apart from the first infrared sensor.
An anti-sprain and shock-absorbing balance sole, comprising an upper sole and a lower sole, wherein a cavity is sandwiched between the upper sole and the lower sole, multiple compressible and reboundable shock-absorbing elements are embedded in the cavity, upper ends of the multiple shock-absorbing elements connect with the upper sole, and lower ends of the multiple shock-absorbing elements connects with the lower sole, the multiple shock-absorbing elements are distributed on both sides of the sole, every two corresponding shock-absorbing elements are in a row, and are connected by a first balance beam, the first balance beam is made of hard thin rod, the multiple shock-absorbing elements are helical springs, characterized in that an elastic material is wrapped out of the periphery area of each row of the shock-absorbing elements, and the elastic material only wraps the periphery area of each row of the shock-absorbing elements for a layer, other parts in the cavity remain empty.