mhurhangee/ep-ind-claims huggingface dataset:
A method for calibrating a magnetic locator, said magnetic locator comprising at least two sensors: - a transmitter comprising at least one transmitter coil, - a receiver comprising at least one receiver coil, the method being characterized in that it involves a third sensor consisting of a transmitter-receiver comprising a transmitter-receiver coil, said method comprising, in any order - emission of a first magnetic field by the transmitter coil and reception by the receiver coil of first signals generated in the receiver by said magnetic field, - emission of a second magnetic field by the transmitter coil and reception by the transmitter/receiver coil of second signals generated in the transmitter/receiver by said magnetic field, - emission of a third magnetic field by the transmitter/receiver coil of the transmitter/receiver and reception by the receiver coil of third signals generated in the receiver by said magnetic field, the calibration method comprising determining at least a transmitter magnetic moment from the first, second and third signals and a receiver magnetic moment from the first, second and third signals. - a transmitter comprising at least one transmitter coil, - a receiver comprising at least one receiver coil, - emission of a first magnetic field by the transmitter coil and reception by the receiver coil of first signals generated in the receiver by said magnetic field, - emission of a second magnetic field by the transmitter coil and reception by the transmitter/receiver coil of second signals generated in the transmitter/receiver by said magnetic field, - emission of a third magnetic field by the transmitter/receiver coil of the transmitter/receiver and reception by the receiver coil of third signals generated in the receiver by said magnetic field,
Method for the actuation of a closing element (7, 13) of a vehicle, comprising the following steps: optical detection of a directed displacement of an object to an arbitrary position in a region, producing a visual marking for localizing the position if the directed displacement has previously been detected, detection of a displacement process of the object, wherein the displacement process comprises the directed displacement, and actuation of the closing element (7, 13) if the detected displacement process meets at least one predetermined condition. optical detection of a directed displacement of an object to an arbitrary position in a region, producing a visual marking for localizing the position if the directed displacement has previously been detected, detection of a displacement process of the object, wherein the displacement process comprises the directed displacement, and actuation of the closing element (7, 13) if the detected displacement process meets at least one predetermined condition.
A composition for passivation, in particular black passivation, of surfaces that are galvanized or provided with zinc-containing coatings, comprising (a) at least one iron compound in amounts of 0.01 to 3 wt%, (b) at least one phosphorus-containing compound in amounts of 0.01 to 2 wt% and (c) at least one further transition metal compound in amounts of 0.001 to 0.5 wt%, each in relation to the composition, wherein the composition is free of cobalt, nickel and chromium compounds. the composition has a pH value less than 4, and the further transition metal compound is selected from compounds of transition metals from the group consisting of scandium, yttrium, the lanthanides, the fifth group of the Periodic Table of the Elements, the sixth group of the Periodic Table of the Elements and mixtures thereof. (a) at least one iron compound in amounts of 0.01 to 3 wt%, (b) at least one phosphorus-containing compound in amounts of 0.01 to 2 wt% and (c) at least one further transition metal compound in amounts of 0.001 to 0.5 wt%, each in relation to the composition,
A method executed by a user equipment, UE, for initiating offloading from a cellular network to a WiFi network, the cellular network connecting through an evolved NodeB, eNB, the WiFi network connecting through a Wireless Local Area Network, WLAN, the method comprising: sending a Power Preference Indication, PPI, message to the eNB to indicate that the UE has a low power; receiving from the eNB an offload instruction to offload from the cellular network to the WiFi network including an identification of the WLAN; connecting to the WLAN; sending the identified WLAN an offload initiation; and connecting the UE to the WiFi network through the identified WLAN. sending a Power Preference Indication, PPI, message to the eNB to indicate that the UE has a low power; receiving from the eNB an offload instruction to offload from the cellular network to the WiFi network including an identification of the WLAN; connecting to the WLAN; sending the identified WLAN an offload initiation; and connecting the UE to the WiFi network through the identified WLAN.
A radar apparatus transmitting pulse signals at predetermined repetition cycles (T1-Tn) and receiving and analyzing the pulse signals reflected by a target object to thereby detect the target object, the radar apparatus comprising: a transmission antenna for transmitting pulse signals at repetition cycles T1 to Tn, n>1; n reception antennas (RX1 - RX4) for receiving the reflected pulse signals in the respective repetition cycles T1 to Tn; a setting means setting so that at least a part of the repetition cycles T1 to Tn is different and for setting a time obtained by totaling the repetition cycles T1 to Tn to a fixed sampling cycle; a selection means for selecting one of the reception antennas (T1 - T4) according to each repetition cycle (T1 - Tn); a detection means detecting a distance to the target object specified by the pulse signal; and a removal means removing the target object as an interference wave from another radar apparatus or clutter when the distance to the target object detected in the different repetition cycle or in a period subsequent to the different repetition cycle by the detection means and the distance to the target object detected in the period other than that by the detection means are different. a transmission antenna for transmitting pulse signals at repetition cycles T1 to Tn, n>1; n reception antennas (RX1 - RX4) for receiving the reflected pulse signals in the respective repetition cycles T1 to Tn; a setting means setting so that at least a part of the repetition cycles T1 to Tn is different and for setting a time obtained by totaling the repetition cycles T1 to Tn to a fixed sampling cycle; a selection means for selecting one of the reception antennas (T1 - T4) according to each repetition cycle (T1 - Tn); a detection means detecting a distance to the target object specified by the pulse signal; and a removal means removing the target object as an interference wave from another radar apparatus or clutter when the distance to the target object detected in the different repetition cycle or in a period subsequent to the different repetition cycle by the detection means and the distance to the target object detected in the period other than that by the detection means are different.
A tool bit for an ultrasonic osteotome, comprising: a bit body connected with an ultrasonic equipment, an arbor fixed to the bit body, and a flat end portion of the tool bit fixed to the arbor, wherein the end portion of the tool bit includes a toothed edge extending linearly along a length direction of the end portion of the tool bit, wherein said tool bit further comprises a plurality of recesses which are distributed evenly on the toothed edge to form teeth spaced apart from each other, wherein cutting edges of the teeth have a linear distribution structure and overlap with an extension of the toothed edge, such that the cutting edges of the teeth are not formed with sharp tooth structure, wherein the end portion of the tool bit further comprises a back edge having an arcuate edge portion adjacent to a terminal of the end portion of the tool bit in a length direction thereof, and the arcuate edge portion is smoothly connected to the toothed edge. a bit body connected with an ultrasonic equipment, an arbor fixed to the bit body, and a flat end portion of the tool bit fixed to the arbor, wherein the end portion of the tool bit includes a toothed edge extending linearly along a length direction of the end portion of the tool bit, wherein said tool bit further comprises a plurality of recesses which are distributed evenly on the toothed edge to form teeth spaced apart from each other, wherein cutting edges of the teeth have a linear distribution structure and overlap with an extension of the toothed edge, such that the cutting edges of the teeth are not formed with sharp tooth structure, wherein the end portion of the tool bit further comprises a back edge having an arcuate edge portion adjacent to a terminal of the end portion of the tool bit in a length direction thereof, and the arcuate edge portion is smoothly connected to the toothed edge.
An alloy plate coated material comprising: a stainless steel sheet which has a passivation film having a Cr/O value i.e. a molar ratio of Cr/O in the range of 0.09 to 0.20 and a Cr/Fe value i.e. a molar ratio of Cr/Fe in the range of 0.55 to 0.80 at the surface as measured by an Auger electron spectroscopy analysis as defined in the description on the stainless steel sheet; and an alloy plate layer formed on the passivation film to constitute an outermost layer and formed from a Ni-Pd-P alloy, the alloy plate layer being formed by electroless plating, wherein the alloy plate layer has a molar ratio of Ni to Pd of 0.005 to 0.5, and a ratio of each element in the Ni-Pd-P alloy plate layer is that Ni is 15 to 65 at. %, Pd is 20 to 60 at. %, and P is 15 to 40 at. %. a stainless steel sheet which has a passivation film having a Cr/O value i.e. a molar ratio of Cr/O in the range of 0.09 to 0.20 and a Cr/Fe value i.e. a molar ratio of Cr/Fe in the range of 0.55 to 0.80 at the surface as measured by an Auger electron spectroscopy analysis as defined in the description on the stainless steel sheet; and an alloy plate layer formed on the passivation film to constitute an outermost layer and formed from a Ni-Pd-P alloy, the alloy plate layer being formed by electroless plating, wherein the alloy plate layer has a molar ratio of Ni to Pd of 0.005 to 0.5, and a ratio of each element in the Ni-Pd-P alloy plate layer is that Ni is 15 to 65 at. %, Pd is 20 to 60 at. %, and P is 15 to 40 at. %.
A method for neutralising underwater explosive devices employing the system of claim 5, comprising the steps of: - identifying an underwater explosive device, - preparing a source for emitting an acoustic signal, - placing the source for emitting an acoustic signal close to the underwater explosive device, the step being performed by a first underwater vehicle, the first underwater vehicle being configured for transporting the source for emitting an acoustic signal, the first underwater vehicle comprising a storage system and releasing means, designed to pick said source from the storage system and to place the source close to the underwater explosive device, - determining a first distance (Rs) between the source for emitting an acoustic signal and the underwater explosive device, - preparing an explosive charge, - determining a trajectory (Rm) to be travelled by the explosive charge to reach the underwater explosive device using the acoustic signal, - guiding the explosive charge close to the underwater explosive device, the step of guiding the explosive charge being implemented by means of a second underwater vehicle along the trajectory (Rm), - detonating the explosive charge when the underwater explosive device is reached, the step of determining a trajectory (Rm) comprising the step of calculating the vector sum of the first distance (Rs) and a second distance (Rv) correlated with the distance between the second underwater vehicle and source of emitting a signal. - identifying an underwater explosive device, - preparing a source for emitting an acoustic signal, - placing the source for emitting an acoustic signal close to the underwater explosive device, the step being performed by a first underwater vehicle, the first underwater vehicle being configured for transporting the source for emitting an acoustic signal, the first underwater vehicle comprising a storage system and releasing means, designed to pick said source from the storage system and to place the source close to the underwater explosive device, - determining a first distance (Rs) between the source for emitting an acoustic signal and the underwater explosive device, - preparing an explosive charge, - determining a trajectory (Rm) to be travelled by the explosive charge to reach the underwater explosive device using the acoustic signal, - guiding the explosive charge close to the underwater explosive device, the step of guiding the explosive charge being implemented by means of a second underwater vehicle along the trajectory (Rm), - detonating the explosive charge when the underwater explosive device is reached, the step of determining a trajectory (Rm) comprising the step of calculating the vector sum of the first distance (Rs) and a second distance (Rv) correlated with the distance between the second underwater vehicle and source of emitting a signal.
A monument (604; 704) configured to be positioned within an internal cabin (30; 600; 700) of a vehicle, the monument comprising: a deployable portion, wherein the deployable portion is configured to move from a non-deployed state into a deployed state when a force that meets or exceeds a predetermined threshold is exerted into the monument, a monument wall assembly (100; 200; 300; 400; 500); wherein the deployable portion comprises a deployable clearance panel (104; 202; 302; 402; 502) within the monument wall assembly (100; 200; 300; 400; 500), wherein the clearance panel is configured to move from the non-deployed state into the deployed state when the force that meets or exceeds a predetermined threshold is exerted into the monument wall assembly (100; 200; 300; 400; 500), at least one shear pin; wherein the clearance panel (104; 202; 302; 402; 502) comprises a first portion that is configured to pivotally secure to a floor of the internal cabin and a second portion that is configured to couple to one of a fixed wall or a ceiling of the internal cabin by the at least one shear pin, characterized in that the at least one shear pin is configured to break upon exertion of the force that meets or exceeds a predetermined threshold, and in that the force that meets or exceeds a predetermined threshold is an ultimate load that is at least nine times the force of gravity of the clearance panel (104; 202; 302; 402; 502). a deployable portion, wherein the deployable portion is configured to move from a non-deployed state into a deployed state when a force that meets or exceeds a predetermined threshold is exerted into the monument, a monument wall assembly (100; 200; 300; 400; 500); wherein the deployable portion comprises a deployable clearance panel (104; 202; 302; 402; 502) within the monument wall assembly (100; 200; 300; 400; 500), wherein the clearance panel is configured to move from the non-deployed state into the deployed state when the force that meets or exceeds a predetermined threshold is exerted into the monument wall assembly (100; 200; 300; 400; 500), at least one shear pin; wherein the clearance panel (104; 202; 302; 402; 502) comprises a first portion that is configured to pivotally secure to a floor of the internal cabin and a second portion that is configured to couple to one of a fixed wall or a ceiling of the internal cabin by the at least one shear pin, characterized in that the at least one shear pin is configured to break upon exertion of the force that meets or exceeds a predetermined threshold, and in that the force that meets or exceeds a predetermined threshold is an ultimate load that is at least nine times the force of gravity of the clearance panel (104; 202; 302; 402; 502).
A motorboat fly-by-wire steering wheel hub for control and information of operation of a motorboat, characterized by comprising: a housing having bores (22, 24) and configured to be secured in the motorboat; a hollow shaft for a steering wheel rotationally supported by the housing via radial bearings (66,68) located in the bores (22,24); a rotational sensor mounted in the housing for sensing an angular position of the hollow shaft wherein the rotational sensor is in mating rotational engagement with the hollow shaft; a nut supported slidingly and non-rotationally between axial end stops defined by the bores (22,24) and a top face of bearing in the housing; and wherein a control and information unit is mounted to the hollow shaft radially inside the steering wheel and comprising a processing unit capable of communicating and processing input and output signals for the operation of the motorboat and the nut is in threaded engagement with the hollow shaft. a housing having bores (22, 24) and configured to be secured in the motorboat; a hollow shaft for a steering wheel rotationally supported by the housing via radial bearings (66,68) located in the bores (22,24); a rotational sensor mounted in the housing for sensing an angular position of the hollow shaft wherein the rotational sensor is in mating rotational engagement with the hollow shaft; a nut supported slidingly and non-rotationally between axial end stops defined by the bores (22,24) and a top face of bearing in the housing; and wherein a control and information unit is mounted to the hollow shaft radially inside the steering wheel and comprising a processing unit capable of communicating and processing input and output signals for the operation of the motorboat and the nut is in threaded engagement with the hollow shaft.
A multiband antenna comprising: at least two antenna elements (1, 2) configured to be used in a low frequency band and a high frequency band, wherein the antenna element configured to be used in the high frequency band is constituted by two or more antenna elements (2a, 2b), and a feeding point unit configured to be shared by both of the antenna elements (1, 2a) configured to be used in the low frequency band and the high frequency band; the two or more antenna elements (2a, 2b) configured to be used in the high frequency band are respectively constituted by a feeding point side antenna element connected to the feeding point unit and a ground side antenna element which is grounded at one end and is opposed to an open end of the feeding point side antenna element at the other open end with a space interposed between the open ends; and an impedance matching unit is inserted into and connected to the feeding point side antenna element, the impedance matching unit is inserted into and connected to a position between an end of the antenna element configured to be used in the high frequency band on the side of the feeding point unit and its open end thereof, wherein the impedance matching unit is constituted by an LC parallel resonance circuit configured to operate as an inductor in the low frequency band and operate as a capacitor in the high frequency band. at least two antenna elements (1, 2) configured to be used in a low frequency band and a high frequency band, wherein the antenna element configured to be used in the high frequency band is constituted by two or more antenna elements (2a, 2b), and a feeding point unit configured to be shared by both of the antenna elements (1, 2a) configured to be used in the low frequency band and the high frequency band; the two or more antenna elements (2a, 2b) configured to be used in the high frequency band are respectively constituted by a feeding point side antenna element connected to the feeding point unit and a ground side antenna element which is grounded at one end and is opposed to an open end of the feeding point side antenna element at the other open end with a space interposed between the open ends; and an impedance matching unit is inserted into and connected to the feeding point side antenna element, the impedance matching unit is inserted into and connected to a position between an end of the antenna element configured to be used in the high frequency band on the side of the feeding point unit and its open end thereof, wherein the impedance matching unit is constituted by an LC parallel resonance circuit configured to operate as an inductor in the low frequency band and operate as a capacitor in the high frequency band.
A connector assembly comprising a front housing holding a plurality of contact modules, each of the contact modules comprising a wafer including a dielectric body having a first side and an opposite second side, the wafer holding a plurality of signal contacts having mating portions extending forward from a front of the dielectric body, a first ground frame extending along the first side of the dielectric body and providing electrical shielding for the signal contacts, the first ground frame having beams extending from a front of the first ground frame, a second ground frame extending along the second side of the dielectric body and providing electrical shielding for the signal contacts, the second ground frame having shields at least partially surrounding corresponding said mating portions of the signal contacts, characterized in that: one said ground frame (250 or 252) of each contact module is mechanically and electrically connected to one said ground frame (252 or 250) of an adjacent contact module; and the beams include deflectable fingers resiliently engaged with the second ground frame of an adjacent contact module. one said ground frame (250 or 252) of each contact module is mechanically and electrically connected to one said ground frame (252 or 250) of an adjacent contact module; and the beams include deflectable fingers resiliently engaged with the second ground frame of an adjacent contact module.
A polymeric composition comprising a crosslinked (meth)acrylic composition comprising of a brittle matrix having a glass transition temperature of greater than 0°C and of elastomeric domains having a characteristic dimension of less than 100 nm consisting of macromolecular sequences having a flexible nature with a glass transition temperature of less than 0°C, characterized that the macromolecular sequences having a flexible nature are having a weight average molecular weight Mw of between 150 000 and 800 000 g/mol and that the polydispersity index PI of the macromolecular sequences having a flexible nature is greater than 2.6, wherein the glass transition temperature, the weight average molecular weight Mw and the polydispersity index PI are determined as specified in the description.