mhurhangee/ep-ind-claims huggingface dataset:
Damping device for vibration-damping mounting of a receiver within a hearing instrument, said damping device comprising an elastic damping element, a cage connected to the elastic damping element, characterized by a shell surrounding the cage for damping low frequencies and protecting the earpiece against damage by mechanical shocks, which shell consists of two half-shells (21, 23) pushed from opposite sides onto the construction unit formed by the damping element and the cage, the elastic damping element and at least part of the shell each having a lower hardness than the cage.
A securing arrangement for securing an actuating lever to a spindle, the securing arrangement comprising a fastening formation rotatably co-operable, in use, with a corresponding fastening formation on the spindle, and being rotatable relative to the spindle and lever to a securing position in which the respective fastening formations (30, 38) co-operate so that the securing arrangement secures the actuating lever to the spindle, wherein the securing arrangement includes anti-rotation means for preventing rotation of the securing arrangement from the securing position, the anti-rotation means extending generally radially from the securing arrangement and being axially deflectable so as to permit rotation of the securing arrangement in the direction opposite to the direction in which the anti-rotation means prevents rotation relative to the spindle and lever.
An ocular surgical system comprising: a surgical console having a fluidics subsystem, an input pedal subsystem, and a phacoemulsification subsystem; a first camera configured to communicate live video of an ocular surgical site; a wearable user interface in communication with the console, the wearable user interface comprising an interface display having: a centrally disposed surgical viewing area; and a peripheral data display region configured to display data relating to a surgery or the console, wherein the peripheral data display region displays information received from the surgical console; characterized in that a second camera is disposed on the wearable user interface, the second camera configured to communicate live video, the wearable user interface being configured to simultaneously display the live video from the second camera and the live video of the surgical site. a surgical console having a fluidics subsystem, an input pedal subsystem, and a phacoemulsification subsystem; a first camera configured to communicate live video of an ocular surgical site; a wearable user interface in communication with the console, the wearable user interface comprising an interface display having: a centrally disposed surgical viewing area; and a peripheral data display region configured to display data relating to a surgery or the console, wherein the peripheral data display region displays information received from the surgical console; characterized in that a second camera is disposed on the wearable user interface, the second camera configured to communicate live video, the wearable user interface being configured to simultaneously display the live video from the second camera and the live video of the surgical site. a centrally disposed surgical viewing area; and a peripheral data display region configured to display data relating to a surgery or the console, wherein the peripheral data display region displays information received from the surgical console; characterized in that a second camera is disposed on the wearable user interface, the second camera configured to communicate live video, the wearable user interface being configured to simultaneously display the live video from the second camera and the live video of the surgical site.
A photodetector comprising a layer structure for photodetection, wherein the layer structure is integrally formed and includes - a resonant tunneling structure for hole tunneling in the valence band, wherein the resonant tunneling structure comprises • a barrier layer structure for accumulating photon-induced electrons in the conduction band at the barrier layer structure or within the barrier layer structure, wherein the barrier layer structure comprises at least two barrier layers (32, 36) separated by at least one inter-barrier layer, and • a first p-doped layer, and - an absorption layer,wherein the absorption layer comprises GaInAsSb allowing for photoelectric absorption of photons in a range between 1,7 μm and 5 μm and/or comprises a GaInSb/InAs-superlattice allowing for photoelectric absorption of photons in a range between 2,5 μm and 30 μm, wherein the integrally formed layer structure comprises GaSb and/or ternary, quaternary or quinternary compound semiconductors with a lattice constant between 6,05 Å and 6,15 Å and/or is based on GaSb. - a resonant tunneling structure for hole tunneling in the valence band, wherein the resonant tunneling structure comprises • a barrier layer structure for accumulating photon-induced electrons in the conduction band at the barrier layer structure or within the barrier layer structure, wherein the barrier layer structure comprises at least two barrier layers (32, 36) separated by at least one inter-barrier layer, and • a first p-doped layer, and • a barrier layer structure for accumulating photon-induced electrons in the conduction band at the barrier layer structure or within the barrier layer structure, wherein the barrier layer structure comprises at least two barrier layers (32, 36) separated by at least one inter-barrier layer, and • a first p-doped layer, and - an absorption layer,wherein the absorption layer comprises GaInAsSb allowing for photoelectric absorption of photons in a range between 1,7 μm and 5 μm and/or comprises a GaInSb/InAs-superlattice allowing for photoelectric absorption of photons in a range between 2,5 μm and 30 μm, wherein the integrally formed layer structure comprises GaSb and/or ternary, quaternary or quinternary compound semiconductors with a lattice constant between 6,05 Å and 6,15 Å and/or is based on GaSb.
A computer-implemented method comprising: determining, by a processor, a set of parameters for indicating at least one action by one or more objects, wherein the at least one action is a dynamic movement of the one or more objects through a geographic space over a period of time; processing the set of parameters to generate synthetic image data, wherein the synthetic image data includes a computer-generated image sequence of the one or more objects performing the at least one action in the geographic space over the period of time; automatically labeling the synthetic image data with at least one label representing the at least one action, the set of parameters, or a combination thereof, wherein the labeling of the synthetic image data comprises labeling a span of frames of the computer-generated image sequence as a whole as a positive case or a negative case of the at least one action, or labeling the span of frames as a whole with a variable parameter value associated with the at least one action; and providing the labeled synthetic image data for training or evaluating a machine learning model to detect the at least one action. determining, by a processor, a set of parameters for indicating at least one action by one or more objects, wherein the at least one action is a dynamic movement of the one or more objects through a geographic space over a period of time; processing the set of parameters to generate synthetic image data, wherein the synthetic image data includes a computer-generated image sequence of the one or more objects performing the at least one action in the geographic space over the period of time; automatically labeling the synthetic image data with at least one label representing the at least one action, the set of parameters, or a combination thereof, wherein the labeling of the synthetic image data comprises labeling a span of frames of the computer-generated image sequence as a whole as a positive case or a negative case of the at least one action, or labeling the span of frames as a whole with a variable parameter value associated with the at least one action; and providing the labeled synthetic image data for training or evaluating a machine learning model to detect the at least one action.
A passive fill-level control system, having • a container receiving a primary medium, wherein the primary medium in the container has a liquid phase and a steam phase during operation, • a feed line for the primary medium connected to the container, into which feed line a control valve is connected, and • a standpipe (18, 18') which is connected as a communicating pipe to the container and through which the primary medium can flow, wherein the standpipe (18, 18') in a partial section forms the primary side of a heat exchanger, the secondary side of which has a secondary line receiving a secondary medium, into which a pilot valve acting on the control valve is connected, characterized in that the heat exchanger has a predominantly vertically oriented elongated heat exchange surface and that the pilot valve and the control valve can be adjusted continuously in such a manner that the flow through the feed line continuously varies with the fill-level of the liquid phase in the container. • a container receiving a primary medium, wherein the primary medium in the container has a liquid phase and a steam phase during operation, • a feed line for the primary medium connected to the container, into which feed line a control valve is connected, and • a standpipe (18, 18') which is connected as a communicating pipe to the container and through which the primary medium can flow,
A processing system, comprising: a master device and a slave device coupled via an interconnection bus, wherein the master device is configured to issue memory burst transaction requests via said interconnection bus to fetch data from said slave device; a cipher engine coupled to the interconnection bus and configured to decrypt said data fetched from said slave device to produce plaintext data for the master device, wherein the cipher engine selectively operates according to: a stream cipher operation mode, wherein a stream of data is fetched from said slave device and processed in a combinatorial circuit to produce said plaintext data, or a block cipher operation mode, wherein a block of data is fetched from said slave device, stored in a buffer memory of the cipher engine, and processed in a cryptographic engine to produce said plaintext data; wherein the cipher engine is configured to stall a read data channel of said interconnection bus between said slave device and said master device in response to the cipher engine switching from said block cipher operation mode to said stream cipher operation mode, and to reactivate said read data channel in response to a last beat of a read burst of said plaintext data produced by said cryptographic engine and corresponding to said block of data stored in said buffer memory being received by said master device. a master device and a slave device coupled via an interconnection bus, wherein the master device is configured to issue memory burst transaction requests via said interconnection bus to fetch data from said slave device; a cipher engine coupled to the interconnection bus and configured to decrypt said data fetched from said slave device to produce plaintext data for the master device, wherein the cipher engine selectively operates according to: a stream cipher operation mode, wherein a stream of data is fetched from said slave device and processed in a combinatorial circuit to produce said plaintext data, or a block cipher operation mode, wherein a block of data is fetched from said slave device, stored in a buffer memory of the cipher engine, and processed in a cryptographic engine to produce said plaintext data; a stream cipher operation mode, wherein a stream of data is fetched from said slave device and processed in a combinatorial circuit to produce said plaintext data, or a block cipher operation mode, wherein a block of data is fetched from said slave device, stored in a buffer memory of the cipher engine, and processed in a cryptographic engine to produce said plaintext data; wherein the cipher engine is configured to stall a read data channel of said interconnection bus between said slave device and said master device in response to the cipher engine switching from said block cipher operation mode to said stream cipher operation mode, and to reactivate said read data channel in response to a last beat of a read burst of said plaintext data produced by said cryptographic engine and corresponding to said block of data stored in said buffer memory being received by said master device.
A control device for controlling a pneumatic component, the device comprising a compressed air supply circuit for connecting to an inlet of the pneumatic component, the circuit comprising both a normally closed monostable valve having an inlet for connecting to a compressed air source and an outlet for connecting to the inlet of the pneumatic component, and also a bistable directional valve having both a first port for connecting to the compressed air source and also a second port connected to a first port of a normally passing monostable directional valve, the monostable directional valve having a second port connected to a pneumatic control port of the monostable valve; · the bistable directional valve being capable of adopting a passing state in which a connection is created between the first port and the second port of said directional valve, and a non-passing state in which the first port and the second port are disconnected from each other; and · the monostable directional valve being capable of adopting a rest state in which a connection is created between the first port and the second port of said directional valve, and an exhaust state in which the second port of said directional valve is connected to an exhaust outlet. · the bistable directional valve being capable of adopting a passing state in which a connection is created between the first port and the second port of said directional valve, and a non-passing state in which the first port and the second port are disconnected from each other; and · the monostable directional valve being capable of adopting a rest state in which a connection is created between the first port and the second port of said directional valve, and an exhaust state in which the second port of said directional valve is connected to an exhaust outlet.
Lamp comprising a first module and at least one second module each having a plurality of LEDs distributed over a module surface, whereby the modules are arranged on at least one cooling element for dissipation of lost heat, and a reflector, whereby light emitted from one of the modules is deflected by the reflector (5, 5a, 5b) into an exit opening of the lamp, characterised in that an optical system (8, 9, 11, 12) through which the light of the LEDs is bundled into a defined structure in a target surface is provided between at least some of the LEDs and the exit opening, whereby the first module and the second module have opposite emission directions, whereby the reflector (5, 5a, 5b) is arranged between the modules.
A multi-force sensing instrument, comprising: a tool comprising a tool shaft having a distal end and a proximal end; a strain sensor arranged at a first position along said tool shaft; at least one of a second strain sensor or a torque-force sensor arranged at a second position along said tool shaft, said second position being more towards said proximal end of said tool shaft than said first position; and a signal processor configured to communicate with said strain sensor and said at least one of said second strain sensor or said torque-force sensor to receive detection signals therefrom, wherein said signal processor is configured to process said signals to determine a magnitude and position of a lateral component of a force applied to said tool shaft when said position of said applied force is between said first and second positions, and wherein said lateral component of said force is a component of said force that lies in a plane that is orthogonal to said tool shaft at said position at which said force is applied. a tool comprising a tool shaft having a distal end and a proximal end; a strain sensor arranged at a first position along said tool shaft; at least one of a second strain sensor or a torque-force sensor arranged at a second position along said tool shaft, said second position being more towards said proximal end of said tool shaft than said first position; and a signal processor configured to communicate with said strain sensor and said at least one of said second strain sensor or said torque-force sensor to receive detection signals therefrom, wherein said signal processor is configured to process said signals to determine a magnitude and position of a lateral component of a force applied to said tool shaft when said position of said applied force is between said first and second positions, and wherein said lateral component of said force is a component of said force that lies in a plane that is orthogonal to said tool shaft at said position at which said force is applied.
A method for conditioning signals emitted by at least two antennas from a power input signal, the two antennas being connected to a transmission path (2, 3) comprising a first coupling stage including a 90° power divider and a second coupling stage including a 90° power combiner, and variable-gain power amplification means, each coupling stage including two inputs and two outputs, the two inputs of the first coupling stage receiving said power input signal, each output of the first coupling stage being connected to a different input of the second coupling stage via variable-gain power amplification means, each output of the second coupling stage being connected to a different antenna (2a, 2b, 3a, 3b), the method comprising determining the gains of the amplification means according to the features of the power input signal, the features of the signals emitted by the antennas, and the features of the coupling stages.
A fluorescence microscope for imaging an object including different fluorophore species having distinct spectral emission characteristics, comprising: an optical system configured to collect fluorescent light emitted from the different fluorophore species within a field of view and to focus the fluorescent light for detection, a spectral splitting arrangement configured to split the fluorescent light collected within said field of view into at least two spectrally different fluorescent light components (223, 225), a multi-channel detector system comprising at least two image sensors (232, 234) configured to detect at least two spatial light intensity distributions based on said at least two spectrally different fluorescent light components (223, 225), each spatial light intensity distribution representing an image of the object over said field of view, a processor configured to determine spatial distributions of the different fluorophore species based on a spectral unmixing analysis of each spatial light intensity distribution, wherein the processor is further configured to obtain compensation information representing a variation of spectral characteristics of the spectral splitting arrangement over said field of view and to determine a spatial distribution of each fluorophore species by taking into account said compensation information, characterized in that the optical system is configured to be non-telecentric on the image side. an optical system configured to collect fluorescent light emitted from the different fluorophore species within a field of view and to focus the fluorescent light for detection, a spectral splitting arrangement configured to split the fluorescent light collected within said field of view into at least two spectrally different fluorescent light components (223, 225), a multi-channel detector system comprising at least two image sensors (232, 234) configured to detect at least two spatial light intensity distributions based on said at least two spectrally different fluorescent light components (223, 225), each spatial light intensity distribution representing an image of the object over said field of view, a processor configured to determine spatial distributions of the different fluorophore species based on a spectral unmixing analysis of each spatial light intensity distribution, wherein the processor is further configured to obtain compensation information representing a variation of spectral characteristics of the spectral splitting arrangement over said field of view and to determine a spatial distribution of each fluorophore species by taking into account said compensation information, characterized in that the optical system is configured to be non-telecentric on the image side.
A consumer operated kiosk comprising: an inspection area configured to receive a mobile phone for purchase from a first user; a processing system configured to prepare the mobile phone for resale; and a dispensing system configured to dispense the mobile phone to a second user after the mobile phone has been prepared for resale and purchased by the second user; wherein the processing system includes a robotic finger configured to contact the mobile phone to test operation of the mobile phone and/or remove data from the mobile phone to prepare the mobile phone for resale, wherein the robotic finger includes a tip configured to contact the mobile phone, and wherein the robotic finger includes a camera at or proximate the tip of the robotic finger so that the camera can obtain an image of a user interface of the phone, and wherein the camera at or proximate the tip of the robotic finger can enable the kiosk to use machine learning to determine which button needs to be pressed and the location of the button relative to the robotic finger. an inspection area configured to receive a mobile phone for purchase from a first user; a processing system configured to prepare the mobile phone for resale; and a dispensing system configured to dispense the mobile phone to a second user after the mobile phone has been prepared for resale and purchased by the second user; wherein the processing system includes a robotic finger configured to contact the mobile phone to test operation of the mobile phone and/or remove data from the mobile phone to prepare the mobile phone for resale, wherein the robotic finger includes a tip configured to contact the mobile phone, and wherein the robotic finger includes a camera at or proximate the tip of the robotic finger so that the camera can obtain an image of a user interface of the phone, and wherein the camera at or proximate the tip of the robotic finger can enable the kiosk to use machine learning to determine which button needs to be pressed and the location of the button relative to the robotic finger.