mhurhangee/ep-ind-claims huggingface dataset:
A UPS (12, 62), comprising: an input configured to be coupled to an AC power source; a DC power source; an output configured to receive power from at least one of the AC power source and the DC power source; a first switched receptacle outlet (24, 64, 107) coupled to the output and configured to be coupled to a first electrical load (74, 102); a second switched receptacle outlet (26, 66, 109) coupled to the output and configured to be coupled to a second electrical load (76, 104); and a control unit configurable to provide a first configuration associated with the first switched receptacle outlet (24, 64, 107) and a second configuration associated with the second switched receptacle outlet (26, 66, 109), wherein the first configuration is employed by the control unit to control a connection of the first switched receptacle outlet to the output based on a first condition concerning a status of the UPS being met and a status of the first electrical load, and wherein the second configuration is employed by the control unit to control a connection of the second switched receptacle outlet (26, 66, 109) to the output based on a second condition concerning the status of the UPS being met and a status of the second electrical load, wherein the control unit is arranged to control the first and second switched receptacle outlets independently of each other. an input configured to be coupled to an AC power source; a DC power source; an output configured to receive power from at least one of the AC power source and the DC power source; a first switched receptacle outlet (24, 64, 107) coupled to the output and configured to be coupled to a first electrical load (74, 102); a second switched receptacle outlet (26, 66, 109) coupled to the output and configured to be coupled to a second electrical load (76, 104); and a control unit configurable to provide a first configuration associated with the first switched receptacle outlet (24, 64, 107) and a second configuration associated with the second switched receptacle outlet (26, 66, 109), wherein the first configuration is employed by the control unit to control a connection of the first switched receptacle outlet to the output based on a first condition concerning a status of the UPS being met and a status of the first electrical load, and wherein the second configuration is employed by the control unit to control a connection of the second switched receptacle outlet (26, 66, 109) to the output based on a second condition concerning the status of the UPS being met and a status of the second electrical load, wherein the control unit is arranged to control the first and second switched receptacle outlets independently of each other.
An imaging device comprising: a display control unit configured to cause a preliminary-notice frame that gives notice of a specific area to be focused to be displayed on an image obtained by an imaging unit according to a specific part of a subject, wherein: the subject is an animal being a dog or cat, and the specific part is a pupil and the specific area is a pupil area, the imaging device further comprising: an area detection unit configured to detect, in a captured image, at least one front specific area including the specific area to be focused, wherein the at least one front specific area indicates the pupil area of the animal located on a near side of the imaging device, wherein in a case where a plurality of front specific areas has been detected, the display control unit is configured to control display of the preliminary-notice frame according to the front specific area being closer to a center position of a focus setting frame for setting a focus area. the subject is an animal being a dog or cat, and the specific part is a pupil and the specific area is a pupil area, the imaging device further comprising: an area detection unit configured to detect, in a captured image, at least one front specific area including the specific area to be focused, wherein the at least one front specific area indicates the pupil area of the animal located on a near side of the imaging device, wherein in a case where a plurality of front specific areas has been detected, the display control unit is configured to control display of the preliminary-notice frame according to the front specific area being closer to a center position of a focus setting frame for setting a focus area. an area detection unit configured to detect, in a captured image, at least one front specific area including the specific area to be focused, wherein the at least one front specific area indicates the pupil area of the animal located on a near side of the imaging device, wherein in a case where a plurality of front specific areas has been detected, the display control unit is configured to control display of the preliminary-notice frame according to the front specific area being closer to a center position of a focus setting frame for setting a focus area.
An interposer substrate for interconnecting a processor with a first array of connectors and a circuit substrate with a second array of connectors in a computing device, wherein the first array of connectors can be directly connected to the second array of corresponding connectors without the interposer, the interposer, comprising: pass through connections for connecting the first connectors of the first array to corresponding second connectors of the second array such that the routing between the first and corresponding second connectors remains untouched compared to when the first and corresponding second connectors are directly connected; rerouted connections for connecting third connectors of the first array to a conductive trace in the interposer substrate, the conductive trace arranged to have a parallel portion parallel to the interposer substrate, such that no electrical connection exists between the third connectors of the first array and corresponding fourth connectors of the second array, wherein the conductive trace is electrically connected to a peripheral circuit residing on the interposer, and the peripheral circuit includes memory devices for connection to a memory bus to increase memory capacity of the computing device. pass through connections for connecting the first connectors of the first array to corresponding second connectors of the second array such that the routing between the first and corresponding second connectors remains untouched compared to when the first and corresponding second connectors are directly connected; rerouted connections for connecting third connectors of the first array to a conductive trace in the interposer substrate, the conductive trace arranged to have a parallel portion parallel to the interposer substrate, such that no electrical connection exists between the third connectors of the first array and corresponding fourth connectors of the second array, wherein the conductive trace is electrically connected to a peripheral circuit residing on the interposer, and the peripheral circuit includes memory devices for connection to a memory bus to increase memory capacity of the computing device.
Dirt collecting device for a cleaning appliance in the form of a sweeping vehicle consisting of a housing driven to be displaceable over the roadway plane and in which is arranged at least one rotatably driven sweeping roller which removes the coarse dirt and fine dirt (17, 18) from the roadway plane and supported by a suction air stream of a suction fan conveys it into a collection container (4, 6), wherein an intermediate container lying in the suction air stream of the suction fan for temporary intermediate storage of coarse dirt is arranged in the housing of the dirt collecting device, characterised in that the suction fan can be regulated in speed and/or power and is designed for carrying out the following steps: 1.1 in a first step, which corresponds to normal operation, the suction power of the suction fan is set so low that the suction pressure in the dirt collecting device is just sufficient in order to convey the picked-up coarse dirt into the intermediate container and to store it there and to convey the picked-up fine dirt into a downstream collection container (4, 6), 1.2 in a second step, the filling level in the intermediate container is recorded with regard to the coarse dirt stored there, 1.3 in a third method step, which corresponds to an emptying operation, on exceeding the filling level in the intermediate container, the suction power of the suction fan is increased such that the coarse dirt stored temporarily in the intermediate container becomes dispersible and is conveyed into the downstream collection container (4 and/or 6). 1.1 in a first step, which corresponds to normal operation, the suction power of the suction fan is set so low that the suction pressure in the dirt collecting device is just sufficient in order to convey the picked-up coarse dirt into the intermediate container and to store it there and to convey the picked-up fine dirt into a downstream collection container (4, 6), 1.2 in a second step, the filling level in the intermediate container is recorded with regard to the coarse dirt stored there, 1.3 in a third method step, which corresponds to an emptying operation, on exceeding the filling level in the intermediate container, the suction power of the suction fan is increased such that the coarse dirt stored temporarily in the intermediate container becomes dispersible and is conveyed into the downstream collection container (4 and/or 6).
A wireless communication device comprising: a base material (10; 10A); a directivity control array and a wiring disposed on the base material (10; 10A), the directivity control array having a plurality of unit elements disposed in a certain two-dimensional pattern, and the wiring connected to a DC power supply of the wireless communication device to apply a DC voltage to desired unit elements; and the wireless communication device further comprising a controller to control the DC voltage to be applied to the desired unit elements, wherein the base material (10; 10A) comprises a window glass or a film to be attached to a window glass; the wireless communication device further comprises an antenna unit, the antenna unit configured to radiate a wave toward to the unit elements; the antenna unit configured to be disposed at a frame for the window glass or disposed on the window glass; each of the unit elements comprises a plurality of conductors disposed in the certain two-dimensional pattern; and an area of the base material (10; 10A) where the conductors are disposed has a transmittance of at least 50% for visible light in a state where the conductors are disposed. a base material (10; 10A); a directivity control array and a wiring disposed on the base material (10; 10A), the directivity control array having a plurality of unit elements disposed in a certain two-dimensional pattern, and the wiring connected to a DC power supply of the wireless communication device to apply a DC voltage to desired unit elements; and the wireless communication device further comprising a controller to control the DC voltage to be applied to the desired unit elements, wherein the base material (10; 10A) comprises a window glass or a film to be attached to a window glass; the wireless communication device further comprises an antenna unit, the antenna unit configured to radiate a wave toward to the unit elements; the antenna unit configured to be disposed at a frame for the window glass or disposed on the window glass; each of the unit elements comprises a plurality of conductors disposed in the certain two-dimensional pattern; and an area of the base material (10; 10A) where the conductors are disposed has a transmittance of at least 50% for visible light in a state where the conductors are disposed.
A flashlight comprising: a flashlight head comprising: a light source housing; a light source supporting structure disposed at least partially within the light source housing, wherein at least one of the light source housing and the light source supporting structure comprises a threaded end; a lens carrier received within the light source housing, wherein the lens carrier is translatable within the light source housing between a first distance relative to the light source supporting structure and a second distance relative to the light source supporting structure; and a primary lens received at a first end of the flashlight head, opposite the threaded end, wherein the lens carrier is disposed within a closed cavity defined by the light source housing, the light source supporting structure, and the primary lens; wherein the threaded end of the flashlight head is configured to engage a flashlight body; wherein the light source supporting structure comprises at least one pin extending therefrom, wherein the lens carrier defines at least one aperture configured to receive therein the pin extending from the light source supporting structure, wherein the lens carrier is translatable along at least a portion of the length of the pin. a flashlight head comprising: a light source housing; a light source supporting structure disposed at least partially within the light source housing, wherein at least one of the light source housing and the light source supporting structure comprises a threaded end; a lens carrier received within the light source housing, wherein the lens carrier is translatable within the light source housing between a first distance relative to the light source supporting structure and a second distance relative to the light source supporting structure; and a light source housing; a light source supporting structure disposed at least partially within the light source housing, wherein at least one of the light source housing and the light source supporting structure comprises a threaded end; a lens carrier received within the light source housing, wherein the lens carrier is translatable within the light source housing between a first distance relative to the light source supporting structure and a second distance relative to the light source supporting structure; and a primary lens received at a first end of the flashlight head, opposite the threaded end, wherein the lens carrier is disposed within a closed cavity defined by the light source housing, the light source supporting structure, and the primary lens; wherein the threaded end of the flashlight head is configured to engage a flashlight body; wherein the light source supporting structure comprises at least one pin extending therefrom, wherein the lens carrier defines at least one aperture configured to receive therein the pin extending from the light source supporting structure, wherein the lens carrier is translatable along at least a portion of the length of the pin.
A connector comprising: a shell that has a cylindrical shape and includes a body portion and a leg portion, the body portion being connected to a shell of another connector; a ground plate that is a conductor plate; a claw that has a structure in which part of the ground plate is raised in a connector connection direction so as to have a strip-shaped tip and the tip supports the leg portion of the shell; and a case made of an insulator, the case to which the shell and the ground plate are to be attached, wherein the case includes a plate-like base portion, a slit that is provided in one surface of the base portion, the slit into which the leg portion is to be inserted, and a groove that is provided in another surface of the base portion, the groove into which the claw is to be inserted; and wherein the slit and the groove are formed in such a way that longitudinal directions thereof are different from each other. a shell that has a cylindrical shape and includes a body portion and a leg portion, the body portion being connected to a shell of another connector; a ground plate that is a conductor plate; a claw that has a structure in which part of the ground plate is raised in a connector connection direction so as to have a strip-shaped tip and the tip supports the leg portion of the shell; and a case made of an insulator, the case to which the shell and the ground plate are to be attached, wherein the case includes a plate-like base portion, a slit that is provided in one surface of the base portion, the slit into which the leg portion is to be inserted, and a groove that is provided in another surface of the base portion, the groove into which the claw is to be inserted; and a plate-like base portion, a slit that is provided in one surface of the base portion, the slit into which the leg portion is to be inserted, and a groove that is provided in another surface of the base portion, the groove into which the claw is to be inserted; and wherein the slit and the groove are formed in such a way that longitudinal directions thereof are different from each other.
An electromagnetic noise suppression sheet comprising 3 to 10% by volume of a conductive carbon, 40 to 65% by volume of spinel ferrite particles having a cumulative 50% volume particle diameter of 1 to 10 μm, and further comprising a resin selected from a styrene-based elastomer, an olefin-based elastomer, a polyester-based elastomer, a polyamide-based elastomer, a urethane-based elastomer and a silicone-based elastomer, wherein the thickness of the sheet is not more than 100 μm and wherein the resin is present in an amount of at least 15% by volume.
A method of manufacturing a nanowire-based structure, the method comprising: forming islands of conductive material on a substrate, with a space between adjacent islands, said islands of conductive material comprising anodic etch barrier material; forming a conductive sacrificial layer on the substrate in the space between adjacent islands (30a,30b) of conductive material; forming an anodizable layer on the islands (30a,30b) of conductive material and on the sacrificial layer, wherein optionally the conductive sacrificial layer and the anodizable layer are constituted by respective portions of a common layer of material deposited in a common deposition step; anodizing the anodizable layer to form a porous anodic oxide template having first regions, where pores of the porous template overlie the islands (30a,30b) of conductive material, and a second region where pores of the porous template overlie the sacrificial layer; forming, inside pores of the porous template in the first regions, nanowires having first ends that contact the conductive material and second ends that extend away from the conductive material; and removing the porous template and the sacrificial layer. forming islands of conductive material on a substrate, with a space between adjacent islands, said islands of conductive material comprising anodic etch barrier material; forming a conductive sacrificial layer on the substrate in the space between adjacent islands (30a,30b) of conductive material; forming an anodizable layer on the islands (30a,30b) of conductive material and on the sacrificial layer, wherein optionally the conductive sacrificial layer and the anodizable layer are constituted by respective portions of a common layer of material deposited in a common deposition step; anodizing the anodizable layer to form a porous anodic oxide template having first regions, where pores of the porous template overlie the islands (30a,30b) of conductive material, and a second region where pores of the porous template overlie the sacrificial layer; forming, inside pores of the porous template in the first regions, nanowires having first ends that contact the conductive material and second ends that extend away from the conductive material; and removing the porous template and the sacrificial layer.
A polymer including a unit represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R 1 and R 2 are the same as or different from each other, and each independently hydrogen; deuterium; a halogen group; a substituted or unsubstituted silyl group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group; L is an arylene group substituted with a C 1 -C 30 alkyl group; or a heteroarylene group substituted with a C 1 -C 30 alkyl group; L 1 to L 4 are the same as or different from each other, and each independently a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; a and b are each 1 or 2, and when a and b are 2, substituents in the two parentheses are the same as or different from each other; n1 and n2 are each an integer of 0 to 4, and when n1 and n2 are 2 or greater, substituents in the two or more parentheses are the same as or different from each other; and m1 is, as a repetition number of the unit, an integer of 1 to 10,000. R 1 and R 2 are the same as or different from each other, and each independently hydrogen; deuterium; a halogen group; a substituted or unsubstituted silyl group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heteroaryl group; L is an arylene group substituted with a C 1 -C 30 alkyl group; or a heteroarylene group substituted with a C 1 -C 30 alkyl group; L 1 to L 4 are the same as or different from each other, and each independently a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; a and b are each 1 or 2, and when a and b are 2, substituents in the two parentheses are the same as or different from each other; n1 and n2 are each an integer of 0 to 4, and when n1 and n2 are 2 or greater, substituents in the two or more parentheses are the same as or different from each other; and m1 is, as a repetition number of the unit, an integer of 1 to 10,000.