mhurhangee/ep-ind-claims huggingface dataset:
A voltage regulator, configured to receive an input voltage at an input node and to provide an output voltage at an output node, comprising: an inductor; a first capacitor; a second capacitor; a switch matrix (430, 432, 434, 436) that is configured to alternate between a first configuration and a second configuration, wherein, in the first configuration, the switch matrix is configured to couple the first capacitor and the second capacitor in a parallel relationship through the inductor, and wherein, in the second configuration, the switch matrix is configured to couple the first capacitor and the second capacitor in a series relationship between the input node and a ground node; and characterized by: a plurality of power switches (420, 422) connected to the inductor configured to induce a current through the inductor to provide a voltage differential between the first capacitor and the second capacitor in the first configuration, wherein the plurality of power switches (420, 422) are all off in the second configuration. an inductor; a first capacitor; a second capacitor; a switch matrix (430, 432, 434, 436) that is configured to alternate between a first configuration and a second configuration, wherein, in the first configuration, the switch matrix is configured to couple the first capacitor and the second capacitor in a parallel relationship through the inductor, and wherein, in the second configuration, the switch matrix is configured to couple the first capacitor and the second capacitor in a series relationship between the input node and a ground node; and characterized by: a plurality of power switches (420, 422) connected to the inductor configured to induce a current through the inductor to provide a voltage differential between the first capacitor and the second capacitor in the first configuration, wherein the plurality of power switches (420, 422) are all off in the second configuration.
A method of receiving a reference signal by a base station via two layers in a wireless communication system, the method comprising: transmitting a cyclic shift field to a user equipment, UE, via a physical downlink control channel, PDCCH, wherein the cyclic shift field indicates a first cyclic shift value allocated to a first reference signal sequence for a first layer among the two layers and a second cyclic shift value allocated to a second reference signal sequence for a second layer among the two layers, so that an interval between the first cyclic shift value and the second cyclic shift value becomes a maximum, and wherein the first cyclic shift value and the second cyclic shift value are represented by table: Cyclic shift field First cyclic shift value Second cyclic shift value 000 0 6 001 6 0 010 3 9 011 4 10 100 2 8 101 8 2 110 10 4 111 9 3; and receiving the first reference signal sequence, via the first layer, and the second reference signal sequence, via the second layer, from the UE. transmitting a cyclic shift field to a user equipment, UE, via a physical downlink control channel, PDCCH, wherein the cyclic shift field indicates a first cyclic shift value allocated to a first reference signal sequence for a first layer among the two layers and a second cyclic shift value allocated to a second reference signal sequence for a second layer among the two layers, so that an interval between the first cyclic shift value and the second cyclic shift value becomes a maximum, and wherein the first cyclic shift value and the second cyclic shift value are represented by table: Cyclic shift field First cyclic shift value Second cyclic shift value 000 0 6 001 6 0 010 3 9 011 4 10 100 2 8 101 8 2 110 10 4 111 9 3; and receiving the first reference signal sequence, via the first layer, and the second reference signal sequence, via the second layer, from the UE.
A fabrication method of a lithium microbattery, comprising the following successive steps: • providing a stack of layers successively comprising: - a first layer made from a first material; - a second layer made from a second material configured to combine with the lithium atoms; - a solid electrolyte layer; - a first electrode; • etching of the first and second materials to form a first pattern made from the first material and a second pattern made from the second material, the second pattern defining an uncovered area and a covered area (13") of the electrolyte layer; • etching of the uncovered area of the electrolyte layer using the second pattern as etching mask, and etching of the first pattern; • depositing in localized manner a lithium-based layer on the second pattern, the second material being configured such that the lithium atoms diffuse into the second pattern, the lithium-based layer and the second pattern forming a lithium-based second electrode. • providing a stack of layers successively comprising: - a first layer made from a first material; - a second layer made from a second material configured to combine with the lithium atoms; - a solid electrolyte layer; - a first electrode; - a first layer made from a first material; - a second layer made from a second material configured to combine with the lithium atoms; - a solid electrolyte layer; - a first electrode; • etching of the first and second materials to form a first pattern made from the first material and a second pattern made from the second material, the second pattern defining an uncovered area and a covered area (13") of the electrolyte layer; • etching of the uncovered area of the electrolyte layer using the second pattern as etching mask, and etching of the first pattern; • depositing in localized manner a lithium-based layer on the second pattern, the second material being configured such that the lithium atoms diffuse into the second pattern, the lithium-based layer and the second pattern forming a lithium-based second electrode.
An Electrical Power System for supplying electrical power to the loads of a vehicle comprising at least a Power Generation Area, a Primary Distribution Area and a Secondary Distribution Area including Electrical Power Load Management Units (EPLMUs) (17, 17', 17", 17"') that comprise a Control Board and one or more SSPCs for groups of loads (19, 19', 19", 19"'), characterized in that: - also comprises a master EPLMU that comprise a Control Board and one or more SSPCs, powered from the Primary Distribution Area and connected to said EPLMUs (17, 17', 17", 17'") by power supply lines to energize their Control Boards and by a data communication bus, and a Load Management Computer connected to said data communication bus; - said master EPLMU and said Load Management Computer being suitably arranged for full control of the start up and the shutdown of said EPLMUs (17, 17', 17", 17"'). - also comprises a master EPLMU that comprise a Control Board and one or more SSPCs, powered from the Primary Distribution Area and connected to said EPLMUs (17, 17', 17", 17'") by power supply lines to energize their Control Boards and by a data communication bus, and a Load Management Computer connected to said data communication bus; - said master EPLMU and said Load Management Computer being suitably arranged for full control of the start up and the shutdown of said EPLMUs (17, 17', 17", 17"').
A battery control module for a battery system, comprising: a voltage measuring module that measures battery voltage; a current measuring module that measures battery current; and a state of charge module that is adapted to communicate with said current and voltage measuring modules, and that is adapted to calculate a charge power limit during charging, a discharge power limit during discharging, a power limit ratio and that is adapted to estimate a SOC based on said power limit ratio, wherein said power limit ratio corresponds to a ratio of said charge power limit to said discharge power limit and wherein said charging and said discharging corresponding to said charge power limit and said discharge power limit occur in adjacent cycles. a voltage measuring module that measures battery voltage; a current measuring module that measures battery current; and a state of charge module that is adapted to communicate with said current and voltage measuring modules, and that is adapted to calculate a charge power limit during charging, a discharge power limit during discharging, a power limit ratio and that is adapted to estimate a SOC based on said power limit ratio, wherein said power limit ratio corresponds to a ratio of said charge power limit to said discharge power limit and wherein said charging and said discharging corresponding to said charge power limit and said discharge power limit occur in adjacent cycles.
Composite stopper for closing containers having an opening delimited by a container edge, said composite stopper comprising, on the one hand, a cylindrical cork element having a shoulder defining a cylindrical part intended to close said opening and a bearing surface intended to press against said container edge and, on the other hand, an insulating element having a bottom and a cylindrical rim defining an internal space, said cylindrical rim having a free edge, said insulating element being intended to cap said cylindrical part of said cylindrical cork element in order to be stuck, while said free edge is applying against said bearing surface; characterized in that said cylindrical rim includes a circular anchoring edge that extends within said internal space; and in that said circular anchoring edge is intended to be anchored into said cylindrical part of said cylindrical cork element after the adhesive was deposited on said cylindrical part, when said insulating element comes to cap said cylindrical part and that the cylindrical part made of cork is press-fit into the insulating element.
A hydrostatic clutch actuator for a clutch of a motor vehicle, the clutch actuator comprising a drive unit (2, 3), a pick-up piston cylinder unit (4, 5) driven by the latter, a hydraulic reservoir fluidly connected to the pick-up piston cylinder unit and a hydraulic system for actuating the clutch, wherein, by means of the pick-up piston cylinder unit (4, 5), hydraulic medium can be conveyed from the hydraulic reservoir into the hydraulic system and the hydraulic system can be pressurised, characterised in that the hydraulic reservoir has an overflow via which hydraulic medium can be removed from the hydraulic reservoir and the hydraulic system.
A cam for applying movement to a lens system comprising: a body configured to couple to the lens system and having a first slot and a second slot, the first slot configured to receive a first lens follower, the second slot configured to receive a second lens follower, the first slot and the second slot extending in directions that are convergent relative to each other, the cam body being configured to move axially along an optical axis of the lens system to cause the first lens follower and second lens follower to move within the respective first and second slots.
A mobile station device configured and/or programmed to communicate with a base station device, the mobile station device comprising: a transmission unit configured and/or programmed to transmit a transport block in an uplink subframe of a physical uplink shared channel; and a conversion unit configured and/or programmed to perform delivering ACK for the transport block to a higher layer belonging to the mobile station device, in a case that the transport block was transmitted by the mobile station device to the base station device and the transport block transmitted by the mobile station device is disabled based on downlink control information received in a downlink subframe. a transmission unit configured and/or programmed to transmit a transport block in an uplink subframe of a physical uplink shared channel; and a conversion unit configured and/or programmed to perform delivering ACK for the transport block to a higher layer belonging to the mobile station device, in a case that the transport block was transmitted by the mobile station device to the base station device and the transport block transmitted by the mobile station device is disabled based on downlink control information received in a downlink subframe.
An implantable cardiac stimulator, in particular a cardiac pacemaker or cardioverter/defibrillator, comprising a ventricular detection unit which is to be connected to an intracardiac electrode (16; 18) and is configured to record and detect ventricular events, and also comprising a ventricular stimulation unit which is to be connected to a ventricular electrode (16; 18) and is configured to produce ventricular stimulation pulses for delivery to the ventricle of a heart, and comprising a control unit which is connected to the ventricular detection unit and to the ventricular stimulation unit and is configured to actuate the ventricular stimulation unit in a VVI mode in ventricle-inhibited fashion in such a way that a ventricular stimulation pulse is triggered at a moment in time predetermined by a stimulation rate if it is not inhibited by detection of a natural ventricular contraction by means of the ventricular detection unit within a predetermined time window, wherein the control unit is configured to predetermine a stimulation rate which is higher than an in particular intrinsic rate appropriate to a physiological demand, characterised in that the control unit is configured to predetermine a variable stimulation rate depending on indirectly or directly detected transconductions of atrial stimuli by way of an AV node of a heart from the atrium to the ventricle of the heart, in such a way that the number of transconductions or the number of transconducted stimuli within a predetermined time or in relation to a predetermined number of ventricular events does not exceed a predetermined degree.
An other-vehicle detection device comprising: a sensor installed on a front part of a host vehicle, a sensor installed on a side surface of the host vehicle, an other-vehicle detection unlit adapted to detect an other-vehicle around the host vehicle by a predetermined feature amount based on the detection value of the sensor installed on the front part of a host vehicle and the sensor installed on the side surface of the host vehicle, wherein, based on a position where the sensors are installed, the other-vehicle detection unit changes a threshold value of the feature amount for detecting the other-vehicle, and performs the other-vehicle detection, and wherein, regarding the sensor disposed on the front part of the host vehicle, the other-vehicle detection unit is adapted to perform detection of the other-vehicle while setting the threshold value of the feature amount such that the other-vehicle is detected with less erroneous detection probability than the sensor installed on side surface of the host vehicle. a sensor installed on a front part of a host vehicle, a sensor installed on a side surface of the host vehicle, an other-vehicle detection unlit adapted to detect an other-vehicle around the host vehicle by a predetermined feature amount based on the detection value of the sensor installed on the front part of a host vehicle and the sensor installed on the side surface of the host vehicle, wherein, based on a position where the sensors are installed, the other-vehicle detection unit changes a threshold value of the feature amount for detecting the other-vehicle, and performs the other-vehicle detection, and wherein, regarding the sensor disposed on the front part of the host vehicle, the other-vehicle detection unit is adapted to perform detection of the other-vehicle while setting the threshold value of the feature amount such that the other-vehicle is detected with less erroneous detection probability than the sensor installed on side surface of the host vehicle.
A solar module comprising: a plurality of solar cells, each of which has a photoelectric conversion unit and a first electrode and a second electrode provided on one main surface of the photoelectric conversion unit; a wiring member electrically connecting the first electrode of one solar cell to the second electrode of another solar cell adjacent to the one solar cell in one direction; and a resin adhesive layer bonding the wiring member and either the one solar cell or the other solar cell; the first electrode and the second electrode each having a plurality of finger portions (21a, 22a) extending in the one direction, and a busbar portion (21b, 22b) connected electrically to the plurality of finger portions (21a, 22a) and positioned in an end portion of the photoelectric conversion unit in the one direction; the wiring member being electrically connected to the first electrode or the second electrode in the finger portions (21a, 22a) characterized by the first electrode and the second electrode each including plated film having a recess positioned in the busbar portion (21b, 22b), wherein the thickness of the plated film at the recess is thinner than the thickness of the plated film at the rest of the plated film; and the resin adhesive layer being not arranged in an area of the recess in the busbar portion (21b, 22b). a plurality of solar cells, each of which has a photoelectric conversion unit and a first electrode and a second electrode provided on one main surface of the photoelectric conversion unit; a wiring member electrically connecting the first electrode of one solar cell to the second electrode of another solar cell adjacent to the one solar cell in one direction; and a resin adhesive layer bonding the wiring member and either the one solar cell or the other solar cell; the first electrode and the second electrode each having a plurality of finger portions (21a, 22a) extending in the one direction, and a busbar portion (21b, 22b) connected electrically to the plurality of finger portions (21a, 22a) and positioned in an end portion of the photoelectric conversion unit in the one direction; the wiring member being electrically connected to the first electrode or the second electrode in the finger portions (21a, 22a) characterized by the first electrode and the second electrode each including plated film having a recess positioned in the busbar portion (21b, 22b), wherein the thickness of the plated film at the recess is thinner than the thickness of the plated film at the rest of the plated film; and the resin adhesive layer being not arranged in an area of the recess in the busbar portion (21b, 22b).
System comprising a container for a tobacco related product and a supplemental product, wherein the container for a tobacco related product, comprises at least one storage compartment for storing the tobacco related product; at least one closure element for providing controlled access to the storage compartment; and one of a first adhesive element and a second adhesive element, wherein the supplemental product comprises the other one of the first adhesive element and the second adhesive element, wherein the first adhesive element comprises an adhesive layer and a cover layer disposed on the adhesive layer and configured for lowering the adhesive strength of the adhesive layer such that the first adhesive element is generally non-tacky, wherein the second adhesive element comprises a release layer, and wh erein the first adhesive element is configured for specifically adhering to the release layer of the second adhesive element.
Dissolvable precut segments of an oral tape, film or strip, wherein each precut segment includes a film forming water soluble polymer; a cleansing effective amount of a teeth cleaning agent; and a fluoridating effective amount of a fluoridating agent, the fluoridating agent comprising a dosage amount of from 0.01 mg to 1 mg, wherein the fluoride concentration is 0.004-0.008 mmoles,for use in a method for decreasing the risk of enamel fluorosis in a child between the ages of two to six, the method, comprising placing one of said precut segments into the oral cavity; and applying agitate force to the precut segment to cleanse and fluoridate one or more teeth in the oral cavity; and removing the residual precut segment from the mouth.
A tire mold drilling working platform, comprising: a base; a drill positioning X-axis assembly disposed on the base; a drill swing angle A-axis assembly being disposed on the drill positioning X-axis assembly; a drill feed U-axis assembly being disposed on the drill swing angle A-axis assembly; an electric spindle assembly being disposed on the drill feed U-axis assembly; a drill being disposed on the electric spindle assembly; the drill positioning X-axis assembly being configured to implement positioning of the drill and a workpiece in a diameter direction of the workpiece; the drill swing angle A-axis assembly being configured to control a swing angle of the drill; the drill feed U-axis assembly being configured to implement feed of the drill and control a drilling depth; characterized in that the tire mold drilling working platform further comprises: a workpiece movement Z-axis assembly being further disposed on the base; a workpiece rotation C-axis assembly being disposed on the workpiece movement Z-axis assembly; wherein the workpiece movement Z-axis assembly is configured to implement positioning of the workpiece and the drill in an axial direction of the workpiece; the tire mold drilling working platform further comprising: a chuck assembly used for installing the workpiece being disposed on the workpiece rotation C-axis assembly; and wherein the workpiece rotation C-axis assembly is configured to implement positioning of the workpiece and the drill in a circumferential direction of the workpiece.
Pressurization system for a stairwell comprising a ventilating casing for supplying air from the external environment provided with a duct connected to the ventilating casing, having an external portion for supplying air comprising at least one smoke sensor and an internal portion (2") for supplying air through an internal wall of the stairwell, a pressure sensor, a control panel electrically connected to the ventilating casing, the pressure sensor, the at least one smoke sensor and a manual control panel, whereby the control panel comprises - a programmable logic controller for the control and command of electronically commutated motors of the plurality of fans positioned in the ventilating casing; said system being characterised by the fact that the system comprises at least three pressure sensors, to which the control panel is electrically connected, and by the fact that the control panel in turn comprises - a battery power supply unit - corresponding motor protectors and power contactors for the plurality of fans positioned in the ventilating casing; - an interface with a building management system, and by the fact that the ventilating casing comprises one or more additional fans providing the redundancy function. whereby the control panel comprises - a programmable logic controller for the control and command of electronically commutated motors of the plurality of fans positioned in the ventilating casing; - a programmable logic controller for the control and command of electronically commutated motors of the plurality of fans positioned in the ventilating casing; said system being characterised by the fact that the system comprises at least three pressure sensors, to which the control panel is electrically connected, and by the fact that the control panel in turn comprises - a battery power supply unit - corresponding motor protectors and power contactors for the plurality of fans positioned in the ventilating casing; - an interface with a building management system, - a battery power supply unit - corresponding motor protectors and power contactors for the plurality of fans positioned in the ventilating casing; - an interface with a building management system, and by the fact that the ventilating casing comprises one or more additional fans providing the redundancy function.