mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an avionics system configured to dynamically communicate one or more configurable parameters of a wiper and wash system based at least in part on a selected mode; an avionics bus configured to communicate dynamic parameters from the avionics system; a wash system comprising a fluid reservoir and fluid level sensor; and a wiper system (202, 204) comprising a control unit configured to operate the system based at least in part on the one or more configurable parameters, wherein the wiper system is coupled to the wash system and supplies the wash fluid to the wiper system; and a wash tube to supply the wash fluid to the wiper system, the system being characterized by comprising a wiper system bus having an electrical bus that couples the wash system to the wiper system and by further comprising a wiper interface device configured to interface the wiper system and the wash system coupled to the wiper system bus with the avionics bus. an avionics system configured to dynamically communicate one or more configurable parameters of a wiper and wash system based at least in part on a selected mode; an avionics bus configured to communicate dynamic parameters from the avionics system; a wash system comprising a fluid reservoir and fluid level sensor; and a wiper system (202, 204) comprising a control unit configured to operate the system based at least in part on the one or more configurable parameters, wherein the wiper system is coupled to the wash system and supplies the wash fluid to the wiper system; and a wash tube to supply the wash fluid to the wiper system, the system being characterized by comprising a wiper system bus having an electrical bus that couples the wash system to the wiper system and by further comprising a wiper interface device configured to interface the wiper system and the wash system coupled to the wiper system bus with the avionics bus.
Subassembly having a planetary gear mechanism for transmitting a drive torque in a vehicle, having a first sun-wheel attachment and having a second sun-wheel attachment and having two shafts (2a, b), wherein each of the sun-wheel attachments (12a, b) is coupled to one of the shafts (2a, b) in a rotationally fixed manner and the sun-wheel attachments (12a, b) can be rotated relative to one another, wherein the subassembly has an electric motor for supplying the drive torque, wherein the planetary gear mechanism is designed in the form of a distribution gear mechanism, wherein the drive torque of the electric motor is introduced via a sum shaft and is dissipated via the sun-wheel attachments (12a, b) and the shafts, forming differential shafts (2a, b), and wherein a main shaft of the electric motor is realized in the form of a hollow shaft which encloses one of the shafts coaxially and/or concentrically, characterized in that each of the sun-wheel attachments (12a, b) has an attachment region (10a, b) for rotationally fixed arrangement on the associated shaft (2a, b) and also has a gearwheel region (8a, b), wherein at least one of the gearwheel regions (8a, b) projects in the axial direction relative to its attachment region (10a, b), and therefore the sun-wheel attachments (12a, b) are arranged to overlap in the radial direction in an overlap region.
An air-quality detection apparatus, comprising: a casing body comprising a bottom and a side wall extending upwards from a circumference of the bottom; a first printed circuit board disposed horizontally above the bottom; a second PCB disposed horizontally in a first region above the first PCB; a CO 2 sensor mounted on the second PCB; a volatile organic compound sensor mounted in a second region on a top surface of the first PCB, the second region being closer to the side wall than the first region; a third PCB on which a wireless communication interface is mounted, the third PCB being disposed horizontally at a position spaced further upwards apart from the bottom than the first PCB, at least a portion of the third PCB being disposed in a third region that does not overlap the first PCB when the bottom is viewed from above; a fourth PCB disposed horizontally above the second PCB and the third PCB; and a dust sensor mounted on a top surface of the fourth PCB. a casing body comprising a bottom and a side wall extending upwards from a circumference of the bottom; a first printed circuit board disposed horizontally above the bottom; a second PCB disposed horizontally in a first region above the first PCB; a CO 2 sensor mounted on the second PCB; a volatile organic compound sensor mounted in a second region on a top surface of the first PCB, the second region being closer to the side wall than the first region; a third PCB on which a wireless communication interface is mounted, the third PCB being disposed horizontally at a position spaced further upwards apart from the bottom than the first PCB, at least a portion of the third PCB being disposed in a third region that does not overlap the first PCB when the bottom is viewed from above; a fourth PCB disposed horizontally above the second PCB and the third PCB; and a dust sensor mounted on a top surface of the fourth PCB.
A method performed by a network node (3, 4, 5) for notifying a driver of a vehicle about his or her driving, the method comprising: - receiving vehicle related information over a wireless communication network from a communication device capable of receiving data from a data collector of the vehicle, - processing the vehicle related information by calculating a driving indicator indicating a driving style of the driver of the vehicle based on the vehicle related information and comparing the established driving indicator to driving indicators established for one or more drivers of a respective vehicle located within a first distance of the vehicle to establish a driving indicator of a driver of the vehicle in relation to one or more other drivers, and - transmitting to the communication device data indicating the driving indicator of the driver of the vehicle in relation to other drivers. - receiving vehicle related information over a wireless communication network from a communication device capable of receiving data from a data collector of the vehicle, - processing the vehicle related information by calculating a driving indicator indicating a driving style of the driver of the vehicle based on the vehicle related information and comparing the established driving indicator to driving indicators established for one or more drivers of a respective vehicle located within a first distance of the vehicle to establish a driving indicator of a driver of the vehicle in relation to one or more other drivers, and - transmitting to the communication device data indicating the driving indicator of the driver of the vehicle in relation to other drivers.
A fish-plating device for linking a first structural element on a second structural element of a tower crane, the device including at least one fishplate extending along a main axis, from a base portion connected on a member of the first structural element by a primary weld bead, to a connecting portion protruding from a free end of said member along the main axis, and which is designed to be linked on a member of the second structural element characterized in that the base portion of the fishplate has a slot which is delimited by a peripheral wall linked on the member of the first structural element by a secondary weld bead, to limit the mechanical stresses on the primary weld bead.
A system, comprising: a wearable harness of a medical device positionable on a torso of a subject; one or more straps coupled to the wearable harness for securing the wearable harness on the torso of the subject; a plurality of the engines coupled to the wearable harness, wherein the plurality of engines is configured to apply, during use, an oscillation force to at least one treatment area of the subject to mobilize at least some secretions in an airway within the subject substantially adjacent to the at least one treatment area; at least one force sensing element having at least one property that changes with load applied to the at least one force sensing element; and a controller associated with the wearable harness, wherein the controller is wired and/or wirelessly coupled to the engines, wherein the controller is configured to: receive a measurement of the at least one property from the at least one force sensing element; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property. a wearable harness of a medical device positionable on a torso of a subject; one or more straps coupled to the wearable harness for securing the wearable harness on the torso of the subject; a plurality of the engines coupled to the wearable harness, wherein the plurality of engines is configured to apply, during use, an oscillation force to at least one treatment area of the subject to mobilize at least some secretions in an airway within the subject substantially adjacent to the at least one treatment area; at least one force sensing element having at least one property that changes with load applied to the at least one force sensing element; and a controller associated with the wearable harness, wherein the controller is wired and/or wirelessly coupled to the engines, wherein the controller is configured to: receive a measurement of the at least one property from the at least one force sensing element; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property. receive a measurement of the at least one property from the at least one force sensing element; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property.
A mixing, heating and/or frothing device for machines for preparing hot beverages, particularly for preparing cappuccino, comprising a tubular body which defines internally a Venturi tube which extends from an inlet end, which can be associated with a source of steam, to an outlet end, which has at least one dispensing nozzle for dispensing the beverage, a mixing chamber being defined between the converging portion and the diverging portion of said Venturi tube and being connected to at least one duct for feeding a beverage to be frothed and to at least one duct for feeding ambient air which is drawn into said mixing chamber due to the partial vacuum created by the flow of said steam between said converging portion and said diverging portion in order to emulsify said beverage to be frothed, said ducts (8, 11) being substantially transverse to said tubular body and said beverage to be frothed and said air being drawn into said mixing chamber due to the partial vacuum created by the flow of steam between said converging portion and said diverging portion, and further comprising flow control means with automatic actuation for said ambient air, which are associated with said air feeding duct to open and close the channel for the passage of said air in the direction of said mixing chamber, characterized in that said flow control means comprise a slotted piston, which is accommodated slidingly in a cylindrical body which is connected to said air feeding duct, means being provided for calibrating the air flow between said cylindrical body and said air feeding duct, said slotted piston being provided with slots that allow air to pass from the outside environment to a connecting duct that connects said cylindrical body to said air feeding duct, said calibration means comprising a partition which has a calibrated hole and is accommodated inside a connecting tube which is interposed between said connecting duct and said air feeding duct.
A power supply device comprising: a rotary member that holds a wire harness inserted therethrough; and a support member that swingably supports the rotary member and is suitable to be fixed to a fixed structure body or a sliding structure body, wherein the rotary member has an annular outer peripheral wall and a harness lead-out portion, the support member has one sidewall disposed along the outer peripheral wall, and the harness lead-out portion is configured to move in a direction away from the sidewall when the sliding structure body is fully opened, the outer peripheral wall is widely exposed between the harness lead-out portion and the sidewall, the outer peripheral wall and the sidewall are overlapped with each other in a plate thickness direction in a state where the outer peripheral wall is widely exposed, and come close to or come in contact with each other, so that foreign matters are prevented from entering between the outer peripheral wall and the sidewall. a rotary member that holds a wire harness inserted therethrough; and a support member that swingably supports the rotary member and is suitable to be fixed to a fixed structure body or a sliding structure body, wherein the rotary member has an annular outer peripheral wall and a harness lead-out portion, the support member has one sidewall disposed along the outer peripheral wall, and the harness lead-out portion is configured to move in a direction away from the sidewall when the sliding structure body is fully opened, the outer peripheral wall is widely exposed between the harness lead-out portion and the sidewall, the outer peripheral wall and the sidewall are overlapped with each other in a plate thickness direction in a state where the outer peripheral wall is widely exposed, and come close to or come in contact with each other, so that foreign matters are prevented from entering between the outer peripheral wall and the sidewall.
A panel light assembly, comprising: a housing; a light guide plate; a light source comprising a light source plate and configured to emit a light passing through the light guide plate via a light incidence side of the light guide plate; a support base configured for mounting the light source; a heat dissipation structure fixed to a back side of the light source;a deformable unit comprising a first elastic unit disposed between an inner side of a panel frame and a back side of the light source and disposed between the heat dissipation structure and an inner side of the housing; and a stop piece disposed on a front side of the light source plate and configured for keeping at least a first distance between the light incidence side of the light guide plate and the light source when the light guide plate thermally expands so that the light incidence side of the light guide plate expands toward the light source, characterized in that, said deformable unit further comprises a second elastic unit disposed between a front side of the light source and the light guide plate; wherein when the light guide plate thermally expands and engages the second elastic unit, the second elastic unit is deformed by the light guide plate until the lateral side of the light guide plate engages the stop piece and the deformation of the first elastic unit is larger than the deformation of the second elastic unit. a housing; a light guide plate; a light source comprising a light source plate and configured to emit a light passing through the light guide plate via a light incidence side of the light guide plate; a support base configured for mounting the light source; a heat dissipation structure fixed to a back side of the light source;a deformable unit comprising a first elastic unit disposed between an inner side of a panel frame and a back side of the light source and disposed between the heat dissipation structure and an inner side of the housing; and a stop piece disposed on a front side of the light source plate and configured for keeping at least a first distance between the light incidence side of the light guide plate and the light source when the light guide plate thermally expands so that the light incidence side of the light guide plate expands toward the light source, characterized in that, said deformable unit further comprises a second elastic unit disposed between a front side of the light source and the light guide plate; wherein when the light guide plate thermally expands and engages the second elastic unit, the second elastic unit is deformed by the light guide plate until the lateral side of the light guide plate engages the stop piece and the deformation of the first elastic unit is larger than the deformation of the second elastic unit.
An automatic water area segmentation method for a Synthetic Aperture Radar, SAR, image of a complex terrain, comprising: preprocessing an original SAR image to obtain a preprocessed SAR image; performing a first water area segmentation on the preprocessed SAR image using a threshold segmentation method to obtain a first water area range; extracting a Region Of Interest, ROI, from the first water area range; and performing a second water area segmentation on the ROI using a Local Gauss Distribution Fitting Active Contour Model, LGDF ACM, algorithm to obtain a second water area range, the step of performing a first water area segmentation on the preprocessed SAR image using a threshold segmentation method to obtain a first water area range comprises: dividing the preprocessed SAR image into N sub-images, wherein N is an integer greater than 1; for each sub-image, selecting an optimal threshold in the sub-image using a classical Otsu algorithm and performing a first water area segmentation on the sub-image to obtain a first water area sub-range corresponding to the sub-image; and splicing N first water area sub-ranges to obtain the first water area range. preprocessing an original SAR image to obtain a preprocessed SAR image; performing a first water area segmentation on the preprocessed SAR image using a threshold segmentation method to obtain a first water area range; extracting a Region Of Interest, ROI, from the first water area range; and performing a second water area segmentation on the ROI using a Local Gauss Distribution Fitting Active Contour Model, LGDF ACM, algorithm to obtain a second water area range, dividing the preprocessed SAR image into N sub-images, wherein N is an integer greater than 1; for each sub-image, selecting an optimal threshold in the sub-image using a classical Otsu algorithm and performing a first water area segmentation on the sub-image to obtain a first water area sub-range corresponding to the sub-image; and splicing N first water area sub-ranges to obtain the first water area range.
A solid composition comprising the following components and: from 20 to 65 mass% of a milk fat globule membrane component which is a membrane coating milk fat globules and a mixture of components constituting the membrane and is obtained from a raw material milk; and from 0.3 to 3 mass% of one or more of a water-soluble dietary fiber selected from the group consisting of sodium alginate having a weight average molecular weight of from 30,000 to 80,000, pullulan having a weight average molecular weight of from 40,000 to 85,000, guar gum having a weight average molecular weight of 150,000 to 250,000 and a guar gum decomposition product having a weight average molecular weight of 15,000 to 30,000, wherein the weight-average molecular weight is determined on the basis of the conditions using the equipment as defined in the description. from 20 to 65 mass% of a milk fat globule membrane component which is a membrane coating milk fat globules and a mixture of components constituting the membrane and is obtained from a raw material milk; and from 0.3 to 3 mass% of one or more of a water-soluble dietary fiber selected from the group consisting of sodium alginate having a weight average molecular weight of from 30,000 to 80,000, pullulan having a weight average molecular weight of from 40,000 to 85,000, guar gum having a weight average molecular weight of 150,000 to 250,000 and a guar gum decomposition product having a weight average molecular weight of 15,000 to 30,000,
A method for sorting data in parallel on a data-parallel computing device comprising: loading, by a group of parallel processors, data elements into register rows of registers, wherein each register is associated with at least one parallel processor in the group of parallel processors; for each of the parallel processors, sorting, in parallel, the data elements loaded in its associated registers in descending order, partitioning and writing selected register rows (631, 638, 632, 637) into a shared memory based on a maximum number of data elements each processor can write to the shared memory and a total number of registers per processor; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein loading the data elements into each processor's respective registers includes loading, based on a merge level by a processor or processors in the group of processors, a subset of the shared selected register rows of data elements in a transposed form to be then merged sequentially using an optimal merging network that upon completion will be in sorted order, and thereby replacing the subset of the shared selected register rows; and storing, by the parallel processors, the merged and sorted data elements. loading, by a group of parallel processors, data elements into register rows of registers, wherein each register is associated with at least one parallel processor in the group of parallel processors; for each of the parallel processors, sorting, in parallel, the data elements loaded in its associated registers in descending order, partitioning and writing selected register rows (631, 638, 632, 637) into a shared memory based on a maximum number of data elements each processor can write to the shared memory and a total number of registers per processor; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein loading the data elements into each processor's respective registers includes loading, based on a merge level by a processor or processors in the group of processors, a subset of the shared selected register rows of data elements in a transposed form to be then merged sequentially using an optimal merging network that upon completion will be in sorted order, and thereby replacing the subset of the shared selected register rows; and storing, by the parallel processors, the merged and sorted data elements.
A nonwoven fiber web material having a pattern comprising at least two groups of areas hydroembossed onto the nonwoven web, having different machine readable optical properties, said areas arranged to encode optically readable information.