mhurhangee/ep-ind-claims huggingface dataset:
A production method of a bonded structure (100, 200) in which a first member (10, 10a, 10b, 10c, 10d, 30) and a second member are bonded, comprising: a step for forming a perforation (11, 11b, 11c, 11d, 31) with an opening in the surface of the first member (10, 10a, 10b, 10c, 10d, 30) by irradiating the surface of the first member (10, 10a, 10b, 10c, 10d, 30) with a laser in which one pulse is configured from a plurality of sub-pulses, the production method of a bonded structure (100,200) being characterized in that one period of the sub-pulses is 15 ns or less and the number of the sub-pulses of one pulse is 2 or more and 50 or less; and a step for filling and curing the second member in the perforation (11, 11b, 11c, 11d, 31) of the first member (10, 10a, 10b, 10c, 10d, 30). a step for forming a perforation (11, 11b, 11c, 11d, 31) with an opening in the surface of the first member (10, 10a, 10b, 10c, 10d, 30) by irradiating the surface of the first member (10, 10a, 10b, 10c, 10d, 30) with a laser in which one pulse is configured from a plurality of sub-pulses, the production method of a bonded structure (100,200) being characterized in that one period of the sub-pulses is 15 ns or less and the number of the sub-pulses of one pulse is 2 or more and 50 or less; and a step for filling and curing the second member in the perforation (11, 11b, 11c, 11d, 31) of the first member (10, 10a, 10b, 10c, 10d, 30).
Pyroelectric detection device, comprising at least: - a substrate; - a membrane disposed on the substrate; - a pyroelectric detection element disposed on the membrane or forming at least a part of the membrane, and comprising at least a portion of pyroelectric material disposed between first and second electrodes (114, 118); - a cavity passing through the substrate, opening facing a part of the member which forms a bottom wall of the cavity, and comprising lateral edges formed by the substrate; - an element for stiffening the membrane disposed in the cavity, partially filling the cavity, joined to the lateral edges of the cavity at at least two distinct anchoring regions, and disposed against the membrane; wherein the stiffening element is formed at least by one or more portions of the substrate, and wherein a ratio between the surface area of the part of the membrane forming the bottom wall of the cavity which is in contact with the stiffening element and the total surface area of the part of the membrane forming the bottom wall of the cavity is between 0.05 and 0.06. - a substrate; - a membrane disposed on the substrate; - a pyroelectric detection element disposed on the membrane or forming at least a part of the membrane, and comprising at least a portion of pyroelectric material disposed between first and second electrodes (114, 118); - a cavity passing through the substrate, opening facing a part of the member which forms a bottom wall of the cavity, and comprising lateral edges formed by the substrate; - an element for stiffening the membrane disposed in the cavity, partially filling the cavity, joined to the lateral edges of the cavity at at least two distinct anchoring regions, and disposed against the membrane;
A one-step continuous process for manufacturing capsules having a diameter from 1 to 100 microns and a polydispersity index of less than 10%, said process being performed in a rotating chamber containing an aqueous phase and intermediate phase, said process comprising the placing in contact of an aqueous composition, which will become the core of the capsule, with said intermediate phase by injecting droplets of this aqueous composition, these droplets having a controlled and homogeneous size, at a fixed and determined distance from the interface between said intermediate phase and said aqueous phase, through which said droplets are forced under the effect of the centrifugal force generated by the rotation of the chamber, followed by the recovery of an aqueous suspension of capsules.
An electric power tool comprising a control device for controlling at least one operating parameter, a motor for driving a tool, at least three switching elements (21, 23, 25, 27, 29) activatable by a user, which are coupled to the control device, and a speed sensor for monitoring the speed of the motor to generate a speed signal, which is fed to the control device, the control device being configured in such a way that, in dependence on the speed signal, with simultaneous activation of a first and at least one other (23, 25, 27, 29) of the switching elements, a control signal for changing the operating parameter is output, and in that, in dependence on the speed signal, with activation of the first and at least one other switching element (23, 25, 27, 29), a control signal for modified changing of the operating parameter is output.
An optical network comprising one or more reconfigurable optical add/drop multiplexer and/or optical path cross-connect apparatuses for transmitting a wavelength division multiplexing optical signal from a predetermined transmission node to a predetermined reception node via said one or more reconfigurable optical add/drop multiplexer and/or optical path cross-connect apparatuses, wherein the wavelength division multiplexing optical signal includes optical channels or optical super channels made up of successive optical subcarriers, wherein when the optical channels or the optical super channels input from any of input optical fibers (Fi1 to FiN) are routed or switched to one or more output optical fibers (Fo1 to FoN) in at least one of the reconfigurable optical add/drop multiplexer and/or the optical path cross-connect apparatus passed through by a wavelength division multiplexing optical signal transmitted from the predetermined transmission node to the predetermined reception node, a group of the optical channels or the optical super channels adjacent to each other on a frequency axis, which group is output to a predetermined output optical fiber (FoN), is collectively demultiplexed without being demultiplexed for the respective optical channels or optical super channels of the group and is routed or switched to the predetermined output optical fiber, characterized in that when any one of the optical channels or the optical super channels is routed or switched from the transmission node through a plurality of nodes to the reception node, and the group of the optical channels or the optical super channels adjacent to each other on the frequency axis including an optical channel or optical super channel output to the predetermined output optical fiber (FoN) or dropped at the reception node is collectively demultiplexed without being demultiplexed for respective optical channels or optical super channels and is routed or switched to the output optical fiber (FoN), filtering of an optical signal for dropping is permitted only for the optical channel or the optical super channel to be dropped at the reception node, and wherein routing paths and frequency arrangements of the optical channel or the optical super channel as well as optical channels or optical super channels terminated at path-through nodes located on the way are controlled such that the number of times of filtering by a wavelength division filtering mechanism on the next adjacent channels of the optical channels or the optical super channels, on one or both sides on the frequency axis, becomes equal to or less than a predetermined value.
Household appliance apparatus, in particular a cooking appliance apparatus, having at least one switch driver unit which is provided so as to supply at least one switching unit, and having a bootstrap unit which is provided so as to provide at least one supply voltage for the switch driver unit, and having at least one adapting unit which is provided so as in at least one operating state to adapt the supply voltage in dependence upon at least one electrical switch driver parameter of the switch driver unit, characterised in that the adapting unit has a detecting unit which is provided so as to detect the switch driver parameter.
A diatomaceous earth composition with a low endotoxin content, comprising an agglomerated mixture of calcined diatomaceous earth particles and water, the water being free of endotoxins and free of bacteria, wherein the mass ratio of calcined diatomaceous earth particles and water is in the range of 1:1.0 to 1:2.0, and wherein the endotoxin content of the diatomaceous earth composition is equal to or less than 0.5 EU/mL.
Switchgear, in particular medium-voltage switchgear, with at least one actuator for switching at least one switch on and off, with a logic device for controlling the at least one actuator as well as with operating means that are coupled to the logic device, for operating the switchgear for an operator in situ, wherein the operating means comprise at least one display (11, 13, 15, 16, 18, 19, 20) for displaying an operating state of the switchgear and also means (12, 17, 20) for the operator for inputting operating commands, wherein the logic device is configured so that it actuates the at least one actuator corresponding to a selection of an operating command by the operator, characterised in that that the operating means are configured to offer the operator exclusively permitted operating possibilities via the at least one display depending on the operating state, and the means (12, 14, 17, 20) for inputting operating commands allow only an activation of permitted operating commands.
A method, in a radio, for dynamically switching an operating address book upon registering with a visited network, the method comprising: using, by a radio, a first address book in a home network to identify calling radios in the home network, wherein the first address book includes information associated with radios in the home network; roaming, by the radio, to a visited network, receiving an identifier for the visited network, and registering with the visited network; retrieving, by the radio using the identifier for the visited network as a trigger, an additional network specific address book for the visited network and automatically switching to the additional network specific address book upon registering with the visited network; and identifying subsequent calls received by the radio according to information stored in the additional network specific address book. using, by a radio, a first address book in a home network to identify calling radios in the home network, wherein the first address book includes information associated with radios in the home network; roaming, by the radio, to a visited network, receiving an identifier for the visited network, and registering with the visited network; retrieving, by the radio using the identifier for the visited network as a trigger, an additional network specific address book for the visited network and automatically switching to the additional network specific address book upon registering with the visited network; and identifying subsequent calls received by the radio according to information stored in the additional network specific address book.
A method for reducing effects of a sinusoidal component of a noise signal, the method comprising a noise reduction engine performing the following method steps: receiving, at one or more processing devices, an error signal captured using a microphone, the error signal representing a difference between the sinusoidal component of the noise signal and an output of an acoustic transducer, the output of the acoustic transducer configured to reduce the effects of the sinusoidal component of the noise signal; processing the error signal using a digital filter that is configured to compensate for effects due to a signal path between the acoustic transducer and the microphone; determining, based on an output of the digital filter, a current estimate of one or more first parameters of the error signal; determining, based at least on the one or more first parameters of the error signal, a current estimate of a time-varying step size associated with an adaptive process configured to generate a driver signal ( e d) for the acoustic transducer; and generating, based on the current estimate of the time-varying step size, the driver signal, wherein the driver signal is configured to change the output of the acoustic transducer, and wherein the digital filter is a system transfer function from speakers to microphones. receiving, at one or more processing devices, an error signal captured using a microphone, the error signal representing a difference between the sinusoidal component of the noise signal and an output of an acoustic transducer, the output of the acoustic transducer configured to reduce the effects of the sinusoidal component of the noise signal; processing the error signal using a digital filter that is configured to compensate for effects due to a signal path between the acoustic transducer and the microphone; determining, based on an output of the digital filter, a current estimate of one or more first parameters of the error signal; determining, based at least on the one or more first parameters of the error signal, a current estimate of a time-varying step size associated with an adaptive process configured to generate a driver signal ( e d) for the acoustic transducer; and generating, based on the current estimate of the time-varying step size, the driver signal, wherein the driver signal is configured to change the output of the acoustic transducer, and
Fluid application device having a fluid dispenser, which device comprises a reservoir, a housing, an adapter piece for holding the reservoir, and an application head which is arranged above the reservoir and has a nozzle for dispensing fluid, - the nozzle being fluidically connected to a reservoir, - the reservoir being a pressurised vessel which has an outlet which can be opened and closed by means of a valve, and - the housing and the application head being separate components, characterised in that the application head has, on the upper side thereof, an application arm on which the nozzle is arranged so as to point downwards, the adapter piece for holding the reservoir being arranged on the application head and having a clamping bracket which comprises two encompassing elements that are each preloaded by means of a clamping spring, a frame part and an actuating device for preloading and releasing the clamping springs, and the fluid application device having an automatic fluid dispenser, at least one sensor and a control unit for opening and closing the valve in a sensor-controlled manner being provided in the application head, which valve is connected to the nozzle by means of a connecting piece in order to dispense the fluid. - the nozzle being fluidically connected to a reservoir, - the reservoir being a pressurised vessel which has an outlet which can be opened and closed by means of a valve, and - the housing and the application head being separate components, characterised in that the application head has, on the upper side thereof, an application arm on which the nozzle is arranged so as to point downwards, the adapter piece for holding the reservoir being arranged on the application head and having a clamping bracket which comprises two encompassing elements that are each preloaded by means of a clamping spring, a frame part and an actuating device for preloading and releasing the clamping springs, and the fluid application device having an automatic fluid dispenser, at least one sensor and a control unit for opening and closing the valve in a sensor-controlled manner being provided in the application head, which valve is connected to the nozzle by means of a connecting piece in order to dispense the fluid.
A solid-state imaging device comprising: a plurality of pixels each having a photoelectric conversion unit; and a plurality of parallel processing circuits configured to parallelly process signals from a predetermined number of pixels out of the plurality of pixels, wherein the plurality of photoelectric conversion units (708, 709) are provided in a first substrate, and the parallel processing circuits are provided in a second substrate, characterised in that the solid-state imaging device further comprises a DC voltage supply wiring commonly connected to a plurality of transistors (708, 709) provided on the second substrate and configured to supply a DC voltage to the plurality of parallel processing circuits, and wherein the DC voltage supply wiring is formed by electrically connecting first conductive patterns provided on the first substrate with second conductive patterns provided on the second substrate. a plurality of pixels each having a photoelectric conversion unit; and a plurality of parallel processing circuits configured to parallelly process signals from a predetermined number of pixels out of the plurality of pixels, wherein the plurality of photoelectric conversion units (708, 709) are provided in a first substrate, and the parallel processing circuits are provided in a second substrate, characterised in that the solid-state imaging device further comprises a DC voltage supply wiring commonly connected to a plurality of transistors (708, 709) provided on the second substrate and configured to supply a DC voltage to the plurality of parallel processing circuits, and wherein the DC voltage supply wiring is formed by electrically connecting first conductive patterns provided on the first substrate with second conductive patterns provided on the second substrate.
Laser-based weapon simulator including a laser assembly including a. a laser beam source for generating laser radiation, b. a beam forming unit connected to the laser beam source with i. an optical fibre for laser beam guidance, ii. a coupling device for coupling the laser radiation into the optical fibre, iii. a homogenization device for homogenizing the laser radiation, characterized in that - the optical fibre is a monomode fibre, - the core diameter of the monomode fibre is less than 10 μm. a. a laser beam source for generating laser radiation, b. a beam forming unit connected to the laser beam source with i. an optical fibre for laser beam guidance, ii. a coupling device for coupling the laser radiation into the optical fibre, iii. a homogenization device for homogenizing the laser radiation, i. an optical fibre for laser beam guidance, ii. a coupling device for coupling the laser radiation into the optical fibre, iii. a homogenization device for homogenizing the laser radiation, - the optical fibre is a monomode fibre, - the core diameter of the monomode fibre is less than 10 μm.
Gas turbine engine combustion equipment comprising a fuel manifold, a plurality of burners, one or more combustors, and a plurality of flexible hoses (100, 200), the burners being connected to the manifold by the respective flexible hoses, wherein the burners receive fuel from the manifold via the flexible hoses and direct the received fuel into the one or more combustors, each flexible hose having: a metal convolute tube; an elongate member or members located in grooves formed in the inner surface of the convolute tube; a pressure-containing sheath outside the convolute tube; and end connectors fluidly-tightly joined to respective ends of the hose for connection at one end of the hose to the fuel manifold, and at the other end of the hose to the burner; wherein the, or each, elongate member is configured to vibrate in use within the convolute tube so as to prevent build-up of particulate matter within the convolute tube. a metal convolute tube; an elongate member or members located in grooves formed in the inner surface of the convolute tube; a pressure-containing sheath outside the convolute tube; and end connectors fluidly-tightly joined to respective ends of the hose for connection at one end of the hose to the fuel manifold, and at the other end of the hose to the burner; wherein the, or each, elongate member is configured to vibrate in use within the convolute tube so as to prevent build-up of particulate matter within the convolute tube.
A coding and modulation apparatus comprising - an encoder that encodes input data into cell words, and - a modulator that modulates said cell words into constellation values of a non-uniform constellation, wherein said modulator is configured to use the following non-uniform constellation having the total number M=16 constellation points of the constellation and the code rate 3/5, wherein the constellation points are defined by a constellation position vector w 0,...,w M-1: w / code rate 3/5 w0 0.4718 + 0.2606i w1 -0.4718 + 0.2606i w2 0.4718 - 0.2606i w3 -0.4718 - 0.2606i w4 0.2606 + 0.4718i w5 -0.2606 + 0.4718i w6 0.2606 - 0.4718i w7 -0.2606 - 0.4718i w8 1.2088 + 0.4984i w9 -1.2088 + 0.4984i w10 1.2088 - 0.4984i w11 -1.2088 - 0.4984i w12 0.4984 + 1.2088i w13 -0.4984 + 1.2038i w14 0.4984 - 1.2088i w15 -0.4984 - 1.2088i or w/code rate 3/5 w0 0.4718 + 0.2606i w1 0.2606 + 0.4718i w2 -0.4718 + 0.2606i w3 -0.2606 + 0.4718i w4 0.4718 - 0.2606i w5 0.2606 - 0.4718i w6 -0.4718 - 0.2606i w7 -0.2606 - 0,4718i w8 1.2088 + 0,4984i w9 0.4984 + 1.2088i w10 -1.2088 + 0.4984i w11 -0.4984 + 1.2088i w12 1.2088 - 0.4984i w13 0.4984 - 1.2088i w14 -1.2088 - 0.4984i w15 -0.4984 - 1.2088i - an encoder that encodes input data into cell words, and - a modulator that modulates said cell words into constellation values of a non-uniform constellation, wherein said modulator is configured to use the following non-uniform constellation having the total number M=16 constellation points of the constellation and the code rate 3/5, wherein the constellation points are defined by a constellation position vector w 0,...,w M-1: w / code rate 3/5 w0 0.4718 + 0.2606i w1 -0.4718 + 0.2606i w2 0.4718 - 0.2606i w3 -0.4718 - 0.2606i w4 0.2606 + 0.4718i w5 -0.2606 + 0.4718i w6 0.2606 - 0.4718i w7 -0.2606 - 0.4718i w8 1.2088 + 0.4984i w9 -1.2088 + 0.4984i w10 1.2088 - 0.4984i w11 -1.2088 - 0.4984i w12 0.4984 + 1.2088i w13 -0.4984 + 1.2038i w14 0.4984 - 1.2088i w15 -0.4984 - 1.2088i or w/code rate 3/5 w0 0.4718 + 0.2606i w1 0.2606 + 0.4718i w2 -0.4718 + 0.2606i w3 -0.2606 + 0.4718i w4 0.4718 - 0.2606i w5 0.2606 - 0.4718i w6 -0.4718 - 0.2606i w7 -0.2606 - 0,4718i w8 1.2088 + 0,4984i w9 0.4984 + 1.2088i w10 -1.2088 + 0.4984i w11 -0.4984 + 1.2088i w12 1.2088 - 0.4984i w13 0.4984 - 1.2088i w14 -1.2088 - 0.4984i w15 -0.4984 - 1.2088i