mhurhangee/ep-ind-claims huggingface dataset:
Measuring device for detecting a fill level or a limit level of a medium, comprising: a sensor unit that is designed to perform at least two measurements at two different penetration depths in the medium, wherein the first measurement takes place in a first region and the second measurement takes place in a volume region that is more extensive in depth, which comprises the first region, and a calculation unit that is designed to use the results of the at least two measurements to distinguish a complete coverage of the sensor unit by the medium from an adherence of portions of the medium to the sensor unit. a sensor unit that is designed to perform at least two measurements at two different penetration depths in the medium, wherein the first measurement takes place in a first region and the second measurement takes place in a volume region that is more extensive in depth, which comprises the first region, and a calculation unit that is designed to use the results of the at least two measurements to distinguish a complete coverage of the sensor unit by the medium from an adherence of portions of the medium to the sensor unit.
An object recognition method applied to a mobile terminal with a camera, wherein the method comprises: acquiring (101, 201) a first image through the camera in a first operating state in a case where the mobile terminal is in a screen-off state; if the first image has image characteristics of a target object type, controlling (102, 202) the camera to enter a second operating state, and acquiring (102, 202) a second image through the camera in the second operating state; and if it is recognized that the second image includes an incomplete image with the image characteristics, outputting prompt information for indicating that the second image is incomplete; wherein an operating power of the camera in the second operating state is higher than an operating power of the camera in the first operating state; characterized in that outputting the prompt information for indicating that the second image is incomplete comprises: outputting voice prompt information including a moving direction of the mobile terminal according to characteristics of the incomplete image. acquiring (101, 201) a first image through the camera in a first operating state in a case where the mobile terminal is in a screen-off state; if the first image has image characteristics of a target object type, controlling (102, 202) the camera to enter a second operating state, and acquiring (102, 202) a second image through the camera in the second operating state; and if it is recognized that the second image includes an incomplete image with the image characteristics, outputting prompt information for indicating that the second image is incomplete; wherein an operating power of the camera in the second operating state is higher than an operating power of the camera in the first operating state; characterized in that outputting the prompt information for indicating that the second image is incomplete comprises: outputting voice prompt information including a moving direction of the mobile terminal according to characteristics of the incomplete image.
A method of producing a semiconductor device, comprising: - providing a semiconductor substrate having a main surface and a rear surface opposite the main surface, - providing the main surface with an intermetal dielectric and metal planes embedded in the intermetal dielectric and providing the rear surface with an insulation layer and an electrically conductive connection pad arranged in the insulation layer, - forming an opening having a side wall and a bottom from the main surface through the substrate above the connection pad, - forming a side wall spacer on the side wall by a production and subsequent partial removal of a dielectric layer and then removing the insulation layer from the bottom or vice versa, an area of the connection pad being thus uncovered, and - applying a metal layer in the opening, which is provided for an interconnect through the substrate, wherein - an etch stop layer formed by a metal layer or a layer of polyimide, a nitride of the semiconductor material or polysilicon is applied on the intermetal dielectric before the opening is formed and the dielectric layer is produced, the etch stop layer being provided to prevent a removal of the intermetal dielectric above the metal planes during the formation of the side wall spacer and during the removal of the insulation layer from the bottom of the opening, and - during the forming of the opening a step is formed in the intermetal dielectric at the upper edge that surrounds the opening, the step being formed by a flank of the intermetal dielectric adjacent to the upper edge. - providing a semiconductor substrate having a main surface and a rear surface opposite the main surface, - providing the main surface with an intermetal dielectric and metal planes embedded in the intermetal dielectric and providing the rear surface with an insulation layer and an electrically conductive connection pad arranged in the insulation layer, - forming an opening having a side wall and a bottom from the main surface through the substrate above the connection pad, - forming a side wall spacer on the side wall by a production and subsequent partial removal of a dielectric layer and then removing the insulation layer from the bottom or vice versa, an area of the connection pad being thus uncovered, and - applying a metal layer in the opening, which is provided for an interconnect through the substrate, wherein - an etch stop layer formed by a metal layer or a layer of polyimide, a nitride of the semiconductor material or polysilicon is applied on the intermetal dielectric before the opening is formed and the dielectric layer is produced, the etch stop layer being provided to prevent a removal of the intermetal dielectric above the metal planes during the formation of the side wall spacer and during the removal of the insulation layer from the bottom of the opening, and - during the forming of the opening a step is formed in the intermetal dielectric at the upper edge that surrounds the opening, the step being formed by a flank of the intermetal dielectric adjacent to the upper edge.
Hand power tool comprising at least one vibration absorber device (12a-d), which has at least one absorber spring (14a-d) and an absorber mass (16a-d), and comprising a drive mechanism (18a-d) and a mechanism housing (20a-d), the mechanism housing (20a-d) having a housing cover (22a-d) that is provided to close a chamber (24a-d) in which the drive mechanism (18a-d) is disposed and that has at least one fastening means (26a-d) that, in at least one operating state, at least partially fastens the vibration absorber device (12a-d), characterized in that the housing cover (22a-d) and the vibration absorber device (12a-d) constitute a structural unit that can be preassembled.
A system comprising a flap actuation system, a flap, and a flap support linkage connected to the flap, the flap actuation system comprising: a first actuator; a second actuator; a first drive arm coupled to the first actuator, and coupled to the flap via the flap support linkage; a second drive arm coupled to the second actuator, and coupled to the flap via the flap support linkage; a first cam (506, 1102); a first output shaft, the first cam to couple to the first drive arm via the first output shaft during operation of the first actuator to enable the first actuator to actuate the flap via the first drive arm; a second cam (506, 1102); a second output shaft, the second cam to couple to the second drive arm via the second output shaft during operation of the second actuator to enable the second actuator to actuate the flap via the second drive arm, the first cam uncoupled from the first drive arm in response to a failure of the first actuator, the second actuator to actuate the flap via the second drive arm in response to the failure of the first actuator; and a controller, the controller configured to control the coupling of the first actuator to the first drive arm via the first cam and to instruct the second actuator to actuate the flap when the first cam is uncoupled from the first drive arm. a first actuator; a second actuator; a first drive arm coupled to the first actuator, and coupled to the flap via the flap support linkage; a second drive arm coupled to the second actuator, and coupled to the flap via the flap support linkage; a first cam (506, 1102); a first output shaft, the first cam to couple to the first drive arm via the first output shaft during operation of the first actuator to enable the first actuator to actuate the flap via the first drive arm; a second cam (506, 1102); a second output shaft, the second cam to couple to the second drive arm via the second output shaft during operation of the second actuator to enable the second actuator to actuate the flap via the second drive arm, the first cam uncoupled from the first drive arm in response to a failure of the first actuator, the second actuator to actuate the flap via the second drive arm in response to the failure of the first actuator; and a controller, the controller configured to control the coupling of the first actuator to the first drive arm via the first cam and to instruct the second actuator to actuate the flap when the first cam is uncoupled from the first drive arm.
Avalanche transceiver, having a transmitting unit for transmitting at least one transmit signal, a receiving unit for receiving at least one transmit signal from at least one further avalanche transceiver, and a control device for controlling at least one loudspeaker, wherein the control device is designed to control the at least one loudspeaker to output at least one voice message on the basis of at least one event, wherein the at least one event is associated with a search for the at least one further avalanche transceiver, wherein the avalanche transceiver has the at least one loudspeaker and the at least one loudspeaker is designed to issue at least one audio signal, characterized in that the at least one audio signal is associated with the search for the at least one further transceiver, wherein the control device is designed to control the at least one loudspeaker such that the at least one audio signal during the output of the at least one voice message is suppressed or output with a reduced volume.
A feeding structure, comprising a first substrate and a second substrate opposite to each other, a reference electrode, and a dielectric layer between the first substrate and the second substrate, wherein the first substrate comprises a first base plate, and a coupling branch and a delay branch on a side of the first base plate proximal to the dielectric layer, the coupling branch and the delay branch are configured to be connected to two output terminals (32, 33) of a power divider, respectively, and both the delay branch and the coupling branch form a current loop with the reference electrode; the second substrate comprises a second base plate and a receiving electrode on a side of the second base plate proximal to the dielectric layer, the receiving electrode and the coupling branch form a coupling structure, and an orthographic projection of the receiving electrode on the first base plate and an orthographic projection of the coupling branch on the first base plate at least partially overlap each other; a length of an orthographic projection of both the coupling branch and the receiving electrode on the first base plate is different from a length of the delay branch, such that a phase of a microwave signal transmitted on the coupling structure is different from a phase of a microwave signal transmitted on the delay branch; wherein the delay branch comprises a serpentine line such that the phase of the microwave signal transmitted on the coupling structure is different from the phase of the microwave signal transmitted on the delay branch. the first substrate comprises a first base plate, and a coupling branch and a delay branch on a side of the first base plate proximal to the dielectric layer, the coupling branch and the delay branch are configured to be connected to two output terminals (32, 33) of a power divider, respectively, and both the delay branch and the coupling branch form a current loop with the reference electrode; the second substrate comprises a second base plate and a receiving electrode on a side of the second base plate proximal to the dielectric layer, the receiving electrode and the coupling branch form a coupling structure, and an orthographic projection of the receiving electrode on the first base plate and an orthographic projection of the coupling branch on the first base plate at least partially overlap each other; a length of an orthographic projection of both the coupling branch and the receiving electrode on the first base plate is different from a length of the delay branch, such that a phase of a microwave signal transmitted on the coupling structure is different from a phase of a microwave signal transmitted on the delay branch; wherein the delay branch comprises a serpentine line such that the phase of the microwave signal transmitted on the coupling structure is different from the phase of the microwave signal transmitted on the delay branch.
An apparatus for manipulating an audio signal comprising a transient event, the apparatus comprising: a transient signal replacer configured to replace a transient signal portion, comprising the transient event, of the audio signal with a replacement signal portion adapted to signal energy characteristics of one or more non-transient signal portions of the audio signal, or to a signal energy characteristic of the transient signal portion, to obtain a transient-reduced audio signal; a signal processor configured to process the transient-reduced audio signal, to obtain a processed version of the transient-reduced audio signal; and a transient signal re-inserter configured to combine the processed version of the transient-reduced audio signal with a transient signal representing, in an original or processed form, a transient content of the transient signal portion; wherein the transient signal replacer is configured to extrapolate amplitude values of one or more signal portions preceding the transient signal portion, to obtain amplitude values of the replacement signal portion, and wherein the transient signal replacer is configured to extrapolate phase values of one or more signal portions preceding the transient signal portion to obtain phase values of the replacement signal portion. a transient signal replacer configured to replace a transient signal portion, comprising the transient event, of the audio signal with a replacement signal portion adapted to signal energy characteristics of one or more non-transient signal portions of the audio signal, or to a signal energy characteristic of the transient signal portion, to obtain a transient-reduced audio signal; a signal processor configured to process the transient-reduced audio signal, to obtain a processed version of the transient-reduced audio signal; and a transient signal re-inserter configured to combine the processed version of the transient-reduced audio signal with a transient signal representing, in an original or processed form, a transient content of the transient signal portion; wherein the transient signal replacer is configured to extrapolate amplitude values of one or more signal portions preceding the transient signal portion, to obtain amplitude values of the replacement signal portion, and wherein the transient signal replacer is configured to extrapolate phase values of one or more signal portions preceding the transient signal portion to obtain phase values of the replacement signal portion.
A control device for a hybrid vehicle including an internal combustion engine and a motor each for generating vehicle driving power, wherein an operation region indicated by rotational speed and torque of said internal combustion engine includes a first operation region in which a fuel injection amount is calculated in accordance with a stoichiometric air-fuel ratio, and a second operation region in which an amount of fuel is increased to exceed the fuel injection amount that is in accordance with said stoichiometric air-fuel ratio so as to suppress temperature increase of a catalyst provided in an exhausting system of said internal combustion engine, characterized in that said control device calculates a total required power of said hybrid vehicle in accordance with a vehicle state, determines an output power of said internal combustion engine such that the torque and the rotational speed of said internal combustion engine are included in said first operation region in all vehicle states, and determines an output power of said motor based on the output power of said internal combustion engine so as to secure said total required power.
Use of N-acetylhydroxyproline for the manufacture of a pharmaceutical preparation to prevent or reduce the formation of AGEs in a living organism by topically applying N-acetylhydroxyproline to the skin with post-inflammatory hyperpigmentation.
A modular percutaneous prosthetic valve device, comprising a valve module (150a-150c, 200, 300, 400) and a self-assembly member (230, 330, 530, 630, 930), each in a delivery configuration for mounting in a delivery device, said valve module (150a-150c, 200, 300, 400) having a delivery configuration capable of being assembled into a working configuration via said self-assembly member (230, 330, 530, 630, 930) after deployment from said delivery device, characterized in that said self-assembly member (230, 330, 530, 630, 930) has a delivery configuration substantially parallel to a longitudinal axis of said delivery device, and prior to being placed in said delivery configuration of said valve module (150a-150c, 200, 300, 400) is in a squashed configuration.
A biocompatible battery (110, 470) for use in or proximate to the body of a living organism, wherein the biocompatible battery comprises: a first and second current collector; an anode; and a laminar structure; wherein at least one layer of the laminar structure has a volume removed to form a cavity, wherein the cavity is filled with a cathode mixture which fills the cavity, based on its rheology, while maintaining electroconductivity through a filled cathode structure in the cavity, characterized in that the cathode mixture comprises: manganese dioxide; graphite; polyisobutylene; and toluene. a first and second current collector; an anode; and a laminar structure; manganese dioxide; graphite; polyisobutylene; and toluene.
A channel delay determining method, wherein the method comprises: obtaining, by a positioning device, current location information of a position calibration user equipment, UE; calculating, by the positioning device, a propagation delay based on the current location information, prestored location information of an antenna, and the propagation speed of a radio signal, wherein the propagation delay is a time from transmitting a radio signal by the calibration UE to receiving the radio signal by the antenna; calculating, by the positioning device, a time of arrival based on the radio signal transmitted by the position calibration UE to the antenna, wherein the time of arrival is a time obtained through calculation according to a time of arrival, TOA, estimation algorithm; and determining, by the positioning device, a channel delay based on the propagation delay and the time of arrival, wherein the channel delay is positively correlated with the time of arrival and is negatively correlated with the propagation delay. obtaining, by a positioning device, current location information of a position calibration user equipment, UE; calculating, by the positioning device, a propagation delay based on the current location information, prestored location information of an antenna, and the propagation speed of a radio signal, wherein the propagation delay is a time from transmitting a radio signal by the calibration UE to receiving the radio signal by the antenna; calculating, by the positioning device, a time of arrival based on the radio signal transmitted by the position calibration UE to the antenna, wherein the time of arrival is a time obtained through calculation according to a time of arrival, TOA, estimation algorithm; and determining, by the positioning device, a channel delay based on the propagation delay and the time of arrival, wherein the channel delay is positively correlated with the time of arrival and is negatively correlated with the propagation delay.
Control system for a wind turbine including - a feed forward controller having a rotor effective wind speed of the wind turbine as an input parameter and having exactly two output parameters - a feedback controller wherein an input parameter is based on a rotor speed or a generator speed of the wind turbine and having exactly one output parameter and wherein ∘ one output parameter of the feed forward controller is provided to the feedback controller as an input parameter and o another output parameter of the feed forward controller is used as a feed-forward control parameter for controlling the wind turbine, wherein the feed-forward control parameter of the wind turbine is controlling the pitch angle of the rotor blades of the wind turbine, and ∘ one output parameter of the feedback controller is used as a feed-back control parameter for controlling the wind turbine, wherein the feed-back control parameter of the wind turbine is controlling the torque of the power generator of the wind turbine. - a feed forward controller having a rotor effective wind speed of the wind turbine as an input parameter and having exactly two output parameters - a feedback controller wherein an input parameter is based on a rotor speed or a generator speed of the wind turbine and having exactly one output parameter and ∘ one output parameter of the feed forward controller is provided to the feedback controller as an input parameter and o another output parameter of the feed forward controller is used as a feed-forward control parameter for controlling the wind turbine, wherein the feed-forward control parameter of the wind turbine is controlling the pitch angle of the rotor blades of the wind turbine, and ∘ one output parameter of the feedback controller is used as a feed-back control parameter for controlling the wind turbine, wherein the feed-back control parameter of the wind turbine is controlling the torque of the power generator of the wind turbine.
A vehicle interior trim panel, the panel comprising a tear-open airbag deployment region formed from a plurality of sections (105a, 105b) that cooperate to cover an airbag in an installed configuration, the sections (105a, 105b) being joined by a tear seam, the panel further comprising a plurality of support features distributed along the length of the tear seam, each support feature extending at least partially across the tear seam, wherein each support feature comprises a thinned portion at, or near to, a centre line of the tear seam characterised in that the distribution of the support features is such that the support features are more closely spaced towards the middle of the tear seam.