mhurhangee/ep-ind-claims huggingface dataset:
A luggage article comprising: a plurality of walls (102,104,106,108,110,112) together defining an outer structure and enclosed space of the luggage article; a first flexible retaining member attached to and extending from one of the walls (102,104,106,108,110,112); a connector assembly (136,236,336,436,536) including a first connector (136a,236a,336a,436a,536a) and a second connector (136b,236b,336b,436b,536b) that releasably connect together, the first connector (136a, 236a, 336a, 436a, 536a) attached to the first flexible retaining member at a position spaced from the attachment of the first flexible retaining member to the respective one of the walls (102, 104, 106, 108, 110, 112), the second connector ( 136b,236b,336b,436b,536b) attached to one of the walls (102,104,106,108,110,112) in opposing relationship to the first connector (136a,236a,336a,436a,536a), when the first and second connectors (136a,236a,336a, 436a,536a 136b,236b,336b,436b,536b) are releasably connected together, the first retaining member is extended across at least a portion of the enclosed space; the first connector (136a,236a,336a,436a,536a) including a connector engagement feature (146, 246, 346, 446, 546) and a wall engagement feature (148, 248, 348, 448, 548), and the first connector and/or a respective wall (106,108,110,112) being adapted to attach the first connector (136a,236a,336a,436a,536a) to the respective wall (106,108,110,112) via the wall engagement feature. a plurality of walls (102,104,106,108,110,112) together defining an outer structure and enclosed space of the luggage article; a first flexible retaining member attached to and extending from one of the walls (102,104,106,108,110,112); a connector assembly (136,236,336,436,536) including a first connector (136a,236a,336a,436a,536a) and a second connector (136b,236b,336b,436b,536b) that releasably connect together, the first connector (136a, 236a, 336a, 436a, 536a) attached to the first flexible retaining member at a position spaced from the attachment of the first flexible retaining member to the respective one of the walls (102, 104, 106, 108, 110, 112), the second connector ( 136b,236b,336b,436b,536b) attached to one of the walls (102,104,106,108,110,112) in opposing relationship to the first connector (136a,236a,336a,436a,536a), when the first and second connectors (136a,236a,336a, 436a,536a 136b,236b,336b,436b,536b) are releasably connected together, the first retaining member is extended across at least a portion of the enclosed space; the first connector (136a,236a,336a,436a,536a) including a connector engagement feature (146, 246, 346, 446, 546) and a wall engagement feature (148, 248, 348, 448, 548), and the first connector and/or a respective wall (106,108,110,112) being adapted to attach the first connector (136a,236a,336a,436a,536a) to the respective wall (106,108,110,112) via the wall engagement feature.
Device for conveying fuel, having an accumulator pot which can be filled by means of a suction jet pump and which has a pot base with an intake opening which issues into an intake chamber of the suction jet pump and through which the suction jet pump draws in fuel, wherein the intake chamber is connected in terms of flow to the accumulator pot via a mixing duct, wherein, on the pot base of the accumulator pot, within the intake chamber at the transition into the mixing duct, there is provided an oblique ramp for low-turbulence flow guidance, wherein the intake opening and a lower edge, facing toward the pot base, at the inlet (16.1) into the mixing duct are arranged in different planes which are connected to one another by means of the oblique ramp, characterized in that the oblique ramp, proceeding from the lower edge of the inlet (16.1) into the mixing duct, merges into the pot base in continuous fashion, wherein an intake chamber, which is open toward the pot base, and the mixing duct are formed on a housing of the suction jet pump, wherein the housing of the suction jet pump has a stepped transition from the intake chamber into the mixing duct, said stepped transition being adjoined in stepless fashion by the oblique ramp of the pot base after the insertion of the housing of the suction jet pump into a receptacle provided on the pot base.
A lubricant composition comprising, at least: 50 to 80 mass% of silicone oil represented by a formula below, and having a mass-average molecular weight of 900 to 4000, a ratio (C/Si ratio) of carbon to silicon of 3.03 or higher in the structure, and a viscosity index of 300 or higher; 10 to 49 mass% of hydrocarbon-based lubricant, which is at least one selected from the group consisting of an ester oil, an ether oil, and a mineral oil; and 1 to 10 mass% of antioxidant; wherein in the formula, R 1 and R 2 represent an alkyl group or an aralkyl group with 1 to 12 carbons, and n represents an integer between 2 and 44, wherein the C/Si ratio is calculated by the equation C/Si ratio = n × carbon number of R 1 + 1 + carbon number of sum of R 2 + 4 ÷ n + 2. 50 to 80 mass% of silicone oil represented by a formula below, and having a mass-average molecular weight of 900 to 4000, a ratio (C/Si ratio) of carbon to silicon of 3.03 or higher in the structure, and a viscosity index of 300 or higher; 10 to 49 mass% of hydrocarbon-based lubricant, which is at least one selected from the group consisting of an ester oil, an ether oil, and a mineral oil; and 1 to 10 mass% of antioxidant; wherein in the formula, R 1 and R 2 represent an alkyl group or an aralkyl group with 1 to 12 carbons, and n represents an integer between 2 and 44, wherein the C/Si ratio is calculated by the equation C/Si ratio = n × carbon number of R 1 + 1 + carbon number of sum of R 2 + 4 ÷ n + 2.
Coupler in the form of a 3dB coupler which couples two input signals, which are phase-shifted by 90°, to an output signal, comprising at least one first and one second electrical conductor (110, 111) which are spaced apart from each other and are capacitively and inductively coupled to each other, wherein the first conductor represents the primary side and the second conductor represents the secondary side of a transformer, and wherein the first and the second conductor (110, 111) each have a winding number n > 1 and the coupler is designed as a four-port device, wherein the coupler is designed to have a predetermined coupling capacitance C K and coupling inductance L K, wherein C K =1/(2πf Z 0), L K = Z 0 /(2πf), Z 0 is a predetermined wave impedance and f is a predetermined basic frequency, wherein the coupler is designed to couple RF power at a frequency in the range between 1 and 80 MHz and at powers > 1 kW.
A method for removing moisture from powder to be used in an additive manufacturing process for forming a three-dimensional article through successive fusion of parts of at least one layer of a powder bed provided on a work table, which parts corresponds to successive cross sections of the three-dimensional article, said method comprising the steps of: a. providing at least a first powder tank and at least at least a second powder tank, b. providing a predetermined amount of powder on a movable table inside said first powder tank, c. heating the top surface of the powder in said first powder tank to a predetermined temperature for removing moisture from said powder, d. raising said movable table a predetermined distance, e. moving a predetermined thickness of the powder material from said first powder tank to said second powder tank, wherein said first powder tank is a build tank for building said three-dimensional article, f. continuing said heating and moving of dried powder from the build tank to the second powder tank until a predetermined amount of powder is moved from the build tank to the second powder tank. a. providing at least a first powder tank and at least at least a second powder tank, b. providing a predetermined amount of powder on a movable table inside said first powder tank, c. heating the top surface of the powder in said first powder tank to a predetermined temperature for removing moisture from said powder, d. raising said movable table a predetermined distance, e. moving a predetermined thickness of the powder material from said first powder tank to said second powder tank, wherein said first powder tank is a build tank for building said three-dimensional article, f. continuing said heating and moving of dried powder from the build tank to the second powder tank until a predetermined amount of powder is moved from the build tank to the second powder tank.
A natural escapement for a horological movement performing a succession of operating cycles each composed of a first and a second alternation of a balance which comprises a balance wheel on an axis of which is adjusted a balance plate, this natural escapement comprising a first escapement wheel arranged to be driven by a second wheel, this first escapement wheel in turn driving a second escapement wheel, the balance plate carrying a balance pin by which this balance plate causes the pivoting of an anchor at each of the first and second alternations, at least a first lever, pivoted about a pivot axis, being connected to a first arm of the anchor via at least one pivot joint, the anchor comprising a second arm extended by a second lever, these first and second levers (48a, 48b) being arranged to respectively lock the first and second escapement wheels (10, 16) temporarily during the first and second alternations of an operating cycle, the pivoting displacement of the first and second levers (48a, 48b) being limited.
Box for packaging and dispensing products, particularly sanitary products, comprising a parallelepipedal body and a lid mounted on the body, said body comprising a base, a peripheral wall comprising a set of side walls (5, 6, 7, 8) rising from the base and delimiting therewith a loading volume of the box and an open end, the side walls comprising, close to the open end, a set of cutouts forming foldable flaps, and said lid comprising snap-fitting means designed to engage with corresponding snap-fitting means provided on the body, said snap-fitting means of the lid comprising a set of internal ribs extending perpendicularly and inwards from a peripheral edge of the lid and forming a snap-fitting ramp acting on the flaps of the body in order to snap-fit the lid to the body, characterized in that the internal face of the lid comprises a second axial rib extending parallel to the first rib, opposite the latter and forming an inclined surface against which the upper end of a lateral side of the body presses during snap-fitting of the lid on the body.
A method for determining a residual gas quantity in a cylinder of an internal combustion engine, wherein the cylinder is connected via an inlet valve to an air supply and via an outlet valve to an exhaust gas discharge, comprising: obtaining an exhaust gas back pressure at a predetermined time during a working cycle of the internal combustion engine, at which the inlet valve is partially open and the outlet valve is partially open, wherein a sensor signal with a high temporal sampling rate and representing the exhaust gas back pressure is received from a high-resolution exhaust gas back pressure sensor arranged in the exhaust gas discharge adjacent to the outlet valve, wherein the sampling rate is in the range of 0.5 kHz to 3000 kHz, and the exhaust gas back pressure is extracted from the sensor signal at the predetermined time; and calculating the residual gas quantity at the predetermined time as a function of the obtained exhaust gas back pressure. obtaining an exhaust gas back pressure at a predetermined time during a working cycle of the internal combustion engine, at which the inlet valve is partially open and the outlet valve is partially open, wherein a sensor signal with a high temporal sampling rate and representing the exhaust gas back pressure is received from a high-resolution exhaust gas back pressure sensor arranged in the exhaust gas discharge adjacent to the outlet valve, wherein the sampling rate is in the range of 0.5 kHz to 3000 kHz, and the exhaust gas back pressure is extracted from the sensor signal at the predetermined time; and calculating the residual gas quantity at the predetermined time as a function of the obtained exhaust gas back pressure.
A cell configuration method for changing a primary cell, comprising: a User Equipment, UE, obtaining configuration information of a primary cell and a secondary cell from a primary cell change command; and the UE obtaining configuration information of a target primary cell and a target secondary cell from the obtained configuration information of the primary cell and the secondary cell in combination with stored configuration information of a source primary cell and a source secondary cell and changing from the source primary cell and the source secondary cell to the target primary cell and the target secondary cell; primary cell handover may be handover in a base station or across base stations; in a case of handover in a base station, then the UE receives a primary cell change command sent by a base station; in a case of handover across base stations, then the UE receives a primary cell change command sent by a target base station; the primary cell change command is generated by the target base station according to the configuration information of a source primary cell and/or a source secondary cell sent by a source base station. a User Equipment, UE, obtaining configuration information of a primary cell and a secondary cell from a primary cell change command; and the UE obtaining configuration information of a target primary cell and a target secondary cell from the obtained configuration information of the primary cell and the secondary cell in combination with stored configuration information of a source primary cell and a source secondary cell and changing from the source primary cell and the source secondary cell to the target primary cell and the target secondary cell; primary cell handover may be handover in a base station or across base stations; in a case of handover in a base station, then the UE receives a primary cell change command sent by a base station; in a case of handover across base stations, then the UE receives a primary cell change command sent by a target base station; the primary cell change command is generated by the target base station according to the configuration information of a source primary cell and/or a source secondary cell sent by a source base station.
A hand-held surgical instrument, comprising: a handle housing; a first motor disposed within the handle housing; a shaft portion extending distally from the handle housing; an articulation shaft operably coupled to the first motor and disposed within the shaft portion, the articulation shaft configured to axially move within the shaft portion to articulate an end effector; a position sensor associated with the articulation shaft, wherein the position sensor is configured to determine an articulation position of the articulation shaft; and a rack operably coupled between the articulation shaft and the position sensor, characterised in that the rack is arcuate and translates along an arcuate path in response to axial movement of the articulation shaft to move the position sensor. a handle housing; a first motor disposed within the handle housing; a shaft portion extending distally from the handle housing; an articulation shaft operably coupled to the first motor and disposed within the shaft portion, the articulation shaft configured to axially move within the shaft portion to articulate an end effector; a position sensor associated with the articulation shaft, wherein the position sensor is configured to determine an articulation position of the articulation shaft; and a rack operably coupled between the articulation shaft and the position sensor, characterised in that the rack is arcuate and translates along an arcuate path in response to axial movement of the articulation shaft to move the position sensor.
A method for manufacturing a switchgear cabinet, which has at least one switchboard having a base plate, on which electrical switching elements for transmitting and/or distributing electrical energy to at least one piece of equipment are arranged and electrically interconnected, a main circuit that comprises a switching device combination with power-electronics components from the group of power converters and frequency inverters and which is provided for receiving electrical power from at least one supplier such as a generator or network and for transmitting it to at least one consumer such as a motor, as well as an auxiliary circuit that comprises a switching device combination forming a switching logic and is at least provided for the control of the main circuit, characterized in that the at least one base plate, at least one switching element of the auxiliary circuit and at least one of the power electronics switching elements of the main circuit is manufactured by means of a 3D printer using a 3D printing method, wherein the base plate is formed as a composite material plate composed of different materials, using the 3D printing method, wherein a current-conducting material in the form of targeted structures is embedded in a non-conductive matrix material, wherein the switching logic of the auxiliary circuit is integrated into the base plate, wherein the said switching logic is formed by means of the 3D printer, while the base plate is being formed, and wherein on the base plate as well as on the at least one electrical connection is formed using the 3D printer in each case on the at least one power electronics switching element of the main circuit, and the at least one electrical switching element is connected with the base plate by joining the electrical connectors together.
A device for ablating tissue, comprising: first and second electrodes arranged to position a tissue zone, which is to be treated, between the first and second electrodes, wherein the first and second electrodes are concentric cylindrical electrodes having their flat surfaces parallel, and wherein the first and second electrodes are arranged to compress a tissue in the tissue zone; a voltage generator means that applies a voltage between the first and second electrodes in a manner which provides a predetermined electric field to the entire tissue zone for a time sufficient to perform irreversible electroporation to kill substantially all of the cells in the entire identified tissue zone, wherein the generator means generates pulses at a voltage gradient of about 600V/cm ± 10% to 2,000 V/cm. first and second electrodes arranged to position a tissue zone, which is to be treated, between the first and second electrodes, wherein the first and second electrodes are concentric cylindrical electrodes having their flat surfaces parallel, and wherein the first and second electrodes are arranged to compress a tissue in the tissue zone; a voltage generator means that applies a voltage between the first and second electrodes in a manner which provides a predetermined electric field to the entire tissue zone for a time sufficient to perform irreversible electroporation to kill substantially all of the cells in the entire identified tissue zone, wherein the generator means generates pulses at a voltage gradient of about 600V/cm ± 10% to 2,000 V/cm.
An electrochemical cell comprising a membrane electrode assembly positioned between two composite cell plates, wherein each composite cell plate is circular and comprises a polymer element laterally mated and interlocked, at a plurality of engagement points, with a resilient metal element, wherein the polymer element is a hollow ring-shape.
A transmission device comprising: an optoelectrical converter that performs high dynamic range optoelectrical conversion on high dynamic range video data to obtain transmission video data; an encoding unit that applies encoding processing to the transmission video data to obtain a video stream; a transmitter that transmits a container in a predetermined format including the video stream; and an information inserter that inserts meta information indicating an electrooptical conversion characteristic corresponding to a characteristic of the high dynamic range optoelectrical conversion into a parameter set field in the video stream; wherein the information inserter further inserts meta information for display control into a field different from the parameter set field in the video stream; wherein the meta information for display control includes one or more of (a) peak brightness information; (b) field information indicating a field where the display brightness adjustment is allowed; and (c) information indicating whether display brightness adjustment for the video stream is prohibited. an optoelectrical converter that performs high dynamic range optoelectrical conversion on high dynamic range video data to obtain transmission video data; an encoding unit that applies encoding processing to the transmission video data to obtain a video stream; a transmitter that transmits a container in a predetermined format including the video stream; and an information inserter that inserts meta information indicating an electrooptical conversion characteristic corresponding to a characteristic of the high dynamic range optoelectrical conversion into a parameter set field in the video stream; wherein the information inserter further inserts meta information for display control into a field different from the parameter set field in the video stream; wherein the meta information for display control includes one or more of (a) peak brightness information; (b) field information indicating a field where the display brightness adjustment is allowed; and (c) information indicating whether display brightness adjustment for the video stream is prohibited.
Hybrid circuit configuration, particularly a protection circuit configuration, comprising at least one first external conductor segment, wherein a first mechanical bypass switch is configured in the first external conductor segment, wherein a first semiconductor switch configuration is connected parallel to the first bypass switch, wherein the hybrid circuit configuration features a first electronic control unit to activate the first semiconductor switch configuration, wherein the hybrid circuit configuration features a bypass switch activation unit, to which bypass switch activation unit at least one field coil of the bypass switch is connected, wherein at least one control terminal of the bypass switch activation unit is connected to the first electronic control unit, and wherein a current measurement unit is configured in the first external conductor segment, which is connected to the electronic control unit, characterized in that the electronic control unit and/or the bypass switch activation unit is designed to control the field coil of the bypass switch in a preconfigured way either with at least one first electric energy or one second electric energy, wherein the second electric energy is greater than the first electric energy, and that, upon detection of a preconfigured strong current, particularly an overcurrent and/or a short circuit current, the electronic control unit and/or the bypass switch activation unit controls the field coil of the bypass switch in the external conductor segment with the second electrical energy.