mhurhangee/ep-ind-claims huggingface dataset:
A vehicle lighting system comprising a light source unit, the light source unit comprising: a light source that emits excitation light; a light generating unit that includes a luminescent layer to emit generation light by being irradiated with the excitation light; and a lens member, characterized in that the light generating unit further includes: - a reflective layer, - a semi-transmissive reflective layer, and - a first and second holding members (721, 722) that hold the luminescent layer, the reflective layer and the semi-transmissive reflective layer; wherein the second holding member is disposed on a front side of the first holding member, the front being defined by reference to a light axis of the light source unit, the luminescent layer is held between the first and the second holding members (721, 722), the reflective layer is disposed on a back side of the first holding member and configured to reflect the generation light toward the front, the semi-transmissive reflective layer is disposed on the front side of the second holding member at a location that is on the front side of the luminescent layer and is opposite to the reflective layer with the luminescent layer interposed, and configured to transmit a part of the generation light and to reflect another part of the generation light toward the back, and the lens member that is disposed on the front side of the light generating unit and outputs the generation light passing through the semi-transmissive reflective layer toward the front. a light source that emits excitation light; a light generating unit that includes a luminescent layer to emit generation light by being irradiated with the excitation light; and a lens member, characterized in that the light generating unit further includes: - a reflective layer, - a semi-transmissive reflective layer, and - a first and second holding members (721, 722) that hold the luminescent layer, the reflective layer and the semi-transmissive reflective layer; wherein - a reflective layer, - a semi-transmissive reflective layer, and - a first and second holding members (721, 722) that hold the luminescent layer, the reflective layer and the semi-transmissive reflective layer; wherein the second holding member is disposed on a front side of the first holding member, the front being defined by reference to a light axis of the light source unit, the luminescent layer is held between the first and the second holding members (721, 722), the reflective layer is disposed on a back side of the first holding member and configured to reflect the generation light toward the front, the semi-transmissive reflective layer is disposed on the front side of the second holding member at a location that is on the front side of the luminescent layer and is opposite to the reflective layer with the luminescent layer interposed, and configured to transmit a part of the generation light and to reflect another part of the generation light toward the back, and the lens member that is disposed on the front side of the light generating unit and outputs the generation light passing through the semi-transmissive reflective layer toward the front.
An air passage structure for a surface cleaning device, comprising: an electric motor accommodating chamber provided with an accommodating chamber air inlet part and an accommodating chamber air outlet part; an inner cover provided within the electric motor accommodating chamber and provided with an inner cover air inlet part and an inner cover air outlet part, wherein the accommodating chamber air inlet part is in communication with the inner cover air inlet part via an air inlet passage; and an electric motor accommodated in the inner cover, wherein a partition member is provided in the electric motor accommodating chamber; the partition member is provided between the inner cover and the accommodating chamber air outlet part to divide the electric motor accommodating chamber into a first air passage cavity and a second air passage cavity; the inner cover is accommodated in the first air passage cavity; characterized in that, the first air passage cavity is in communication with the second air passage cavity at an outer wall of the air inlet passage. an electric motor accommodating chamber provided with an accommodating chamber air inlet part and an accommodating chamber air outlet part; an inner cover provided within the electric motor accommodating chamber and provided with an inner cover air inlet part and an inner cover air outlet part, wherein the accommodating chamber air inlet part is in communication with the inner cover air inlet part via an air inlet passage; and an electric motor accommodated in the inner cover, wherein a partition member is provided in the electric motor accommodating chamber; the partition member is provided between the inner cover and the accommodating chamber air outlet part to divide the electric motor accommodating chamber into a first air passage cavity and a second air passage cavity; the inner cover is accommodated in the first air passage cavity; characterized in that, the first air passage cavity is in communication with the second air passage cavity at an outer wall of the air inlet passage.
A lubricating fluid damped anti-rotational system comprising: a pawl carrier having an axis of rotation and a radial aperture; a pawl pivotably mounted to the pawl carrier on a pivot joint, the pawl having a contact portion and a counterweight portion; and characterised by a lubricating fluid jet configured to propel a lubricating fluid through the radial aperture to contact the contact portion to oppose radially inward movement of the pawl. a pawl carrier having an axis of rotation and a radial aperture; a pawl pivotably mounted to the pawl carrier on a pivot joint, the pawl having a contact portion and a counterweight portion; and characterised by a lubricating fluid jet configured to propel a lubricating fluid through the radial aperture to contact the contact portion to oppose radially inward movement of the pawl.
Method in a driver assistance system of a vehicle, having the following steps of: - acquiring environment data, which represent an environment of the vehicle, by means of environment sensors (34, 36); calculating, on the basis of the environment data, a driving range which can be driven without a collision and comprises regions of vehicle trajectories which can be driven without a collision starting from a current vehicle position; - providing an output signal for outputting the calculated driving range to a man-machine interface of the vehicle, and - output on a display of a man-machine interface of the vehicle, - the calculation being carried out on the basis of a current environment situation and at least one earlier environment situation. - acquiring environment data, which represent an environment of the vehicle, by means of environment sensors (34, 36); calculating, on the basis of the environment data, a driving range which can be driven without a collision and comprises regions of vehicle trajectories which can be driven without a collision starting from a current vehicle position; - providing an output signal for outputting the calculated driving range to a man-machine interface of the vehicle, and - output on a display of a man-machine interface of the vehicle, - the calculation being carried out on the basis of a current environment situation and at least one earlier environment situation.
An anti-microbial paper towel with a chromatic transfer indicator comprising: a) a cellulosic web; b) a transferable lotion disposed on the web comprising an emollient, an anti-microbial agent, and a retention/release agent such that the lotion has a ΔH above 37°C of more than 10 calories/gram (41.8 joules/g), a total heat of melting of above 25 calories/gram (104.6 joules/g), and an onset of melting temperature of at least 30°C, the lotion selected and applied to the web in amounts such that the lotion imparts a water absorption rate delay of at least 25 percent to the cellulosic web and the lotion being immobilized on the cellulosic web in a semi-solid or solid form; c) a water soluble pH balancing agent disposed on the web at a plurality of discrete pH balancing agent locations; and d) a pH-sensitive transfer indicator disposed on the web at a plurality of discrete indicator locations which are apart from the pH balancing agent locations, wherein the pH-sensitive transfer indicator is chromatically responsive to the pH balancing agent in aqueous form; and wherein the pH balancing agent and the pH-sensitive transfer indicator are selected and applied to the web such that the pH-sensitive transfer indicator undergoes a gradual color change upon contact of the paper towel with water to indicate effective transfer of the lotion. a) a cellulosic web; b) a transferable lotion disposed on the web comprising an emollient, an anti-microbial agent, and a retention/release agent such that the lotion has a ΔH above 37°C of more than 10 calories/gram (41.8 joules/g), a total heat of melting of above 25 calories/gram (104.6 joules/g), and an onset of melting temperature of at least 30°C, the lotion selected and applied to the web in amounts such that the lotion imparts a water absorption rate delay of at least 25 percent to the cellulosic web and the lotion being immobilized on the cellulosic web in a semi-solid or solid form; c) a water soluble pH balancing agent disposed on the web at a plurality of discrete pH balancing agent locations; and d) a pH-sensitive transfer indicator disposed on the web at a plurality of discrete indicator locations which are apart from the pH balancing agent locations, wherein the pH-sensitive transfer indicator is chromatically responsive to the pH balancing agent in aqueous form; and
A solid-state image capturing system comprising: a solid-state image capturing device; and an information processing device, wherein the solid-state image capturing device includes: a first Deep-Neural-Network processing unit that executes, on image data, a part of a DNN algorithm by a first DNN to generate a first result, and the information processing device includes: a second DNN processing unit that executes, on the first result acquired from the solid-state image capturing device, remaining of the DNN algorithm by a second DNN to generate a second result, wherein the solid-state image capturing device further includes: a first control unit that controls the first DNN processing unit, and the information processing device further includes: a second control unit that controls the second DNN processing unit, the first control unit generating first control information including information on the first DNN, and transmitting the generated first control information to the second control unit, and the second control unit generating second control information including information on the second DNN, and transmitting the generated second control information to the first control unit, wherein the first control unit controls the first DNN processing unit based on the second control information, and the second control unit controls the second DNN processing unit based on the first control information. a solid-state image capturing device; and an information processing device, wherein the solid-state image capturing device includes: a first Deep-Neural-Network processing unit that executes, on image data, a part of a DNN algorithm by a first DNN to generate a first result, and the information processing device includes: a second DNN processing unit that executes, on the first result acquired from the solid-state image capturing device, remaining of the DNN algorithm by a second DNN to generate a second result, wherein the solid-state image capturing device further includes: a first control unit that controls the first DNN processing unit, and the information processing device further includes: a second control unit that controls the second DNN processing unit, the first control unit generating first control information including information on the first DNN, and transmitting the generated first control information to the second control unit, and the second control unit generating second control information including information on the second DNN, and transmitting the generated second control information to the first control unit, wherein the first control unit controls the first DNN processing unit based on the second control information, and the second control unit controls the second DNN processing unit based on the first control information.
A battery pack constructing a multi-battery pack system, the battery pack comprising: a communication line for providing a pathway for communication of the battery pack with other battery packs; and a controller characterized in that, the controller is configured to check if the communication line is maintained at a first level of voltage for a first desired amount of time (RXHT) when an activation signal or a message of setting a master battery pack is received from the communication line by the battery pack, is configured to output signals of a second level of voltage to the communication line for a second desired amount of time (TXLTA) set different with other battery pack when the communication line is maintained at the first level of voltage for the first desired amount of time (RXHT), is configured to output the signals of the first level of voltage to the communication line when the second desired amount of time lapses while checking if the communication line is at the first level of voltage, and is configured to set the battery pack as the master battery pack when the communication line is maintained with the first level of voltage, wherein the second level of voltage is lower than the first level of voltage; and wherein the second lower level is able to override the first level of voltage. a communication line for providing a pathway for communication of the battery pack with other battery packs; and a controller characterized in that, the controller is configured to check if the communication line is maintained at a first level of voltage for a first desired amount of time (RXHT) when an activation signal or a message of setting a master battery pack is received from the communication line by the battery pack, is configured to output signals of a second level of voltage to the communication line for a second desired amount of time (TXLTA) set different with other battery pack when the communication line is maintained at the first level of voltage for the first desired amount of time (RXHT), is configured to output the signals of the first level of voltage to the communication line when the second desired amount of time lapses while checking if the communication line is at the first level of voltage, and is configured to set the battery pack as the master battery pack when the communication line is maintained with the first level of voltage, wherein the second level of voltage is lower than the first level of voltage; and wherein the second lower level is able to override the first level of voltage.
Apparatus which includes: a planar transformer having at least one primary circuit comprising of one or more connected conductive coils, a secondary circuit comprising of two or more connected conductive coils (104,108) and a core (208, 216); and is characterized by: a busbar having at least two layers of conductive material (112,116), wherein each of the two or more coils of the secondary circuit (104,108) of the planar transformer are planar and integral with the at least two layers of conductive material of the busbar (112,116); wherein the core includes at least one leg (204, 212); wherein two or more of the coils of the secondary circuit (104, 108) surrounds the at least one leg; wherein the two or more coils of the secondary circuit (104, 108) and the at least two layers of conductive material of the busbar (112,116) are electrically insulated from one another and from the primary circuit by at least two coil insulators (120,124,128) integrated together with a corresponding busbar insulator (132, 136, 140), the coil insulators (120,124,128) and the corresponding busbar insulator (132,136,140) each comprising an insulating material; and wherein power is transferred from the primary circuit to the secondary circuit. a planar transformer having at least one primary circuit comprising of one or more connected conductive coils, a secondary circuit comprising of two or more connected conductive coils (104,108) and a core (208, 216); and is characterized by: a busbar having at least two layers of conductive material (112,116), wherein each of the two or more coils of the secondary circuit (104,108) of the planar transformer are planar and integral with the at least two layers of conductive material of the busbar (112,116); a busbar having at least two layers of conductive material (112,116), wherein each of the two or more coils of the secondary circuit (104,108) of the planar transformer are planar and integral with the at least two layers of conductive material of the busbar (112,116);
A single radio voice call continuity processing method performed by a mobility management entity, MME, or performed by a Serving General Packet Radio Service Support Node, SGSN, the method comprising the steps: • when a single radio voice call continuity, SRVCC, handover request is received, acquiring, from a preset local configuration table, each location area identity corresponding to a Mobile Switching Center, MSC, currently associated with an SGs interface or a Gs interface, wherein the local configuration table comprises a correspondence between each location area identity and each MSC, • determining whether a location area identity in target identification information in the SRVCC handover request is a location area identity corresponding to the MSC currently associated with the SGs interface or the Gs interface, • when a result of the determining step is yes, performing SRVCC processing by using the MSC, which is currently associated with the SGs interface or the Gs interface, as a SRVCC serving MSC, • when the result of the determining step is no, selecting an MSC according to the target identification information to perform the SRVCC processing. • when a single radio voice call continuity, SRVCC, handover request is received, acquiring, from a preset local configuration table, each location area identity corresponding to a Mobile Switching Center, MSC, currently associated with an SGs interface or a Gs interface, wherein the local configuration table comprises a correspondence between each location area identity and each MSC, • determining whether a location area identity in target identification information in the SRVCC handover request is a location area identity corresponding to the MSC currently associated with the SGs interface or the Gs interface, • when a result of the determining step is yes, performing SRVCC processing by using the MSC, which is currently associated with the SGs interface or the Gs interface, as a SRVCC serving MSC, • when the result of the determining step is no, selecting an MSC according to the target identification information to perform the SRVCC processing.
A continuous variable valve opening duration apparatus, comprising: a camshaft; a cam unit on which a cam (71, 72) is formed, and the camshaft inserted into the cam (71, 72); an inner wheel configured to transmit rotation of the camshaft to the cam unit; a wheel housing into which the inner wheel is rotatably inserted and movable perpendicular to the camshaft; a guide shaft on which a guide screw thread is formed and disposed perpendicular to the camshaft; a worm wheel to which an inner screw thread configured to engage with the guide screw thread is formed therewithin and the worm wheel disposed within the wheel housing; and a control shaft on which a control worm configured to engage with the worm wheel is formed, wherein the control worm is configured to engage with an outer screw thread formed outer periphery of the worm wheel, such that, when the relative position of the wheel housing with respect to the camshaft is changed, the relative rotation speed of the cam (71, 72) with respect to the rotation speed of the camshaft is changed. a camshaft; a cam unit on which a cam (71, 72) is formed, and the camshaft inserted into the cam (71, 72); an inner wheel configured to transmit rotation of the camshaft to the cam unit; a wheel housing into which the inner wheel is rotatably inserted and movable perpendicular to the camshaft; a guide shaft on which a guide screw thread is formed and disposed perpendicular to the camshaft; a worm wheel to which an inner screw thread configured to engage with the guide screw thread is formed therewithin and the worm wheel disposed within the wheel housing; and a control shaft on which a control worm configured to engage with the worm wheel is formed, wherein the control worm is configured to engage with an outer screw thread formed outer periphery of the worm wheel, such that, when the relative position of the wheel housing with respect to the camshaft is changed, the relative rotation speed of the cam (71, 72) with respect to the rotation speed of the camshaft is changed.
A solar cell module containing at least two interconnected assemblies (SCA, 17) that comprise solar cells, and a module baseplate containing an electrically conductive carrier structure and a rear-side plate that is electrically insulated with respect to the carrier structure, wherein the carrier structure has regions (SCA regions, 1) equipped separately from one another with solar cell assemblies and also connection regions, and the solar cell assemblies are connected by electrical contacting of the SCA regions with the front side of an adjacent solar cell and by electrical contacting of each of the SCA regions with an adjacent connection region as series connection, or of SCA regions with one another and connection regions with one another as parallel connection, and wherein a two-stage heat spread occurs with a first heat spread over the SCA region and a second heat spread over the rear-side plate.