mhurhangee/ep-ind-claims huggingface dataset:
Movement system for a closure structure with folding movement, such as a gate, door or window, wherein said closure structure comprises: - a first panel, which is extended along a first extension direction between a first constrained flank, which is hinged to a support structure around a hinging axis, and a first free flank; - a second panel, which is extended along a second extension direction between a second constrained flank, which is rotatably connected to the first free flank of said first panel, and a second free flank; wherein said movement system comprises at least one transmission hinge intended to be placed to connect between the first free flank of said first panel and the second constrained flank of said second panel; wherein said transmission hinge comprises: - a first wing intended to be fixed to the first free flank of said first panel; - a movement lever rotatably connected to said first wing around a first rotation axis; - a second wing, which is rotatably connected to said movement lever around a second rotation axis parallel to said first rotation axis, and is intended to be fixed to the second constrained flank of said second panel; wherein said movement system also comprises a motion transmission mechanism, which is mechanically connected to said movement lever and is intended to be kinematically connected to said first panel, in a manner such that, following the rotation of said first panel around said hinging axis, said motion transmission mechanism drives said movement lever to rotate around said first rotation axis; wherein said transmission hinge comprises at least one gear with conjugated profiles, which is placed to connect between said first wing and said second wing and is configured for transmitting a rotary motion between said first wing and said second wing, in a manner such that, following the rotation of said movement lever around said first rotation axis, said second wing is actuated by said gear with conjugated profiles to rotate around said second rotation axis. - a first panel, which is extended along a first extension direction between a first constrained flank, which is hinged to a support structure around a hinging axis, and a first free flank; - a second panel, which is extended along a second extension direction between a second constrained flank, which is rotatably connected to the first free flank of said first panel, and a second free flank; - a first wing intended to be fixed to the first free flank of said first panel; - a movement lever rotatably connected to said first wing around a first rotation axis; - a second wing, which is rotatably connected to said movement lever around a second rotation axis parallel to said first rotation axis, and is intended to be fixed to the second constrained flank of said second panel;
A lighting device comprising: a mounting surface; a lens comprising a lens body having an inner surface encapsulating a cavity and delimiting an entrance to said cavity, said entrance facing the mounting surface, the inner surface comprising a plurality of adjoining surface sections each defining a segment of the cavity, wherein each segment has a narrowing region distal to the entrance delimited by a curved portion of the surface section delimiting said segment; and an elongate carrier extending from the mounting surface into the cavity segments through the cavity entrance and comprising a plurality of solid state lighting elements configured to emit light towards the lens body; characterized in that the cavity comprises an elongate cross-section parallel to the cavity entrance. a mounting surface; a lens comprising a lens body having an inner surface encapsulating a cavity and delimiting an entrance to said cavity, said entrance facing the mounting surface, the inner surface comprising a plurality of adjoining surface sections each defining a segment of the cavity, wherein each segment has a narrowing region distal to the entrance delimited by a curved portion of the surface section delimiting said segment; and an elongate carrier extending from the mounting surface into the cavity segments through the cavity entrance and comprising a plurality of solid state lighting elements configured to emit light towards the lens body; characterized in that the cavity comprises an elongate cross-section parallel to the cavity entrance.
Coupling arrangement for a screw coupling (10, 80, 150) for liquid conduits of a high-pressure cleaning apparatus, wherein the coupling arrangement (12, 14, 82, 84, 152, 156) comprises a plug part (16, 48, 86, 106, 154, 158) pluggably connectable to a complementarily configured plug part of a second coupling arrangement of the screw coupling (10, 80, 150) for establishing a liquid-tight and releasable connection therewith with a sealing ring (28, 90, 162) interposed therebetween, and a connecting part (38, 51, 92, 124, 164, 192) having a thread (50, 52, 96, 132, 168, 196) that is screwably connectable to a complementarily configured thread of the second coupling arrangement, wherein the thread (50, 52, 96, 132, 168, 196) is of a multiple-threaded configuration and the connecting part (38, 51, 92, 124, 164, 192) comprises a clamping element (56, 60, 100, 128, 172, 200) aligned in an in-line relationship with the thread (50, 52, 96, 132, 168, 196) relative to the thread longitudinal axis (63, 134, 202) and releasably clampable against a complementarily configured clamping element of the second coupling arrangement by axially inserting one into the other, wherein a dirt-receiving space (54, 62, 98, 130, 170, 198) is arranged in an axial direction, between the thread (50, 52, 96, 132, 168, 196) and the clamping element (56, 60, 100, 128, 172, 200) and is configured as an annular space (54, 62, 98, 130, 170, 198) that is oriented coaxially with the thread longitudinal axis (63, 134, 202), characterized in that the length of the dirt-receiving space (54, 62, 98, 130, 170, 198) in an axial direction is 0.7 times to 1.3 times the length of the thread (50, 52, 96, 132, 168, 196).
Motor vehicle lock with a ratchet-and-pawl mechanism unit for receiving the closing element consisting of lock latch and pawl, and with a functional unit which has a functional housing for receiving at least one functional element and preferably for covering at least part of the ratchet-and-pawl mechanism unit, and with a cover which covers at least part of the functional unit, wherein at least one fixing arrangement (10, 11) is provided, and wherein, within the context of producing the motor vehicle lock, the cover and the functional housing can be mounted on the ratchet-and-pawl mechanism unit by means of parallel, in particular opposed mounting movements (16, 17) relative to the ratchet-and-pawl unit, characterized in that the mounting of one component out of the cover and functional housing is associated with the production of a fixing engagement between said component and the respective other component and/or the ratchet-and-pawl mechanism unit by means of the fixing arrangement (10, 11).
A household apparatus, in particular a coffee maker having a housing that comprises - a top part with a top surface and a down surface, - a side part with an inner surface and an outer surface, that is connected to the top part, - a gap that is formed along a connecting line of the top part and the side part, - a bottom part, - a drip tray that is placed in the bottom part of the housing, - a water tank - and a drainage channel - characterized in that the drainage channel comprises a water channel that is disposed on the inner surface of the side part along and under the gap, and in that the said water channel comprises at least one outlet that is communicated with the drip tray. - a top part with a top surface and a down surface, - a side part with an inner surface and an outer surface, that is connected to the top part, - a gap that is formed along a connecting line of the top part and the side part, - a bottom part, - a drip tray that is placed in the bottom part of the housing, - a water tank - and a drainage channel - characterized in that the drainage channel comprises a water channel that is disposed on the inner surface of the side part along and under the gap, and in that the said water channel comprises at least one outlet that is communicated with the drip tray.
A short-travel key comprising a touch body for actuating the short-travel key and at least two redundantly arranged microswitches (20, 30) which are actuable via the touch body, characterized in that the short-travel key has only one tactile pressure point, wherein the microswitches (20, 30) arranged redundantly to one another include a tactile microswitch and at least one non-tactile microswitch.
Device for absorbing energy released by the local detensioning of a structural cable, comprising: - at least one first collar, called "retaining collar", to be fixed to the cable, - at least one second collar, called "hammer collar", to be fixed to the cable, the retaining and hammer collars being disposed on the cable on either side of the cutting zone, - at least one reaction element to be disposed around the cable such that the hammer collar is situated between this reaction element and the retaining collar, the cable being able to slide inside this reaction element, - a link system between the retaining collar and the reaction element, to keep the reaction element at a given distance from the retaining collar, - at least one sacrificial spacer disposed between the reaction element and the hammer collar, configured to be deformed under the effect of the displacement of the hammer collar toward the reaction element upon the detensioning of the cable following the cutting thereof, and to absorb at least a part of the energy released by this detensioning. - at least one first collar, called "retaining collar", to be fixed to the cable, - at least one second collar, called "hammer collar", to be fixed to the cable, the retaining and hammer collars being disposed on the cable on either side of the cutting zone, - at least one reaction element to be disposed around the cable such that the hammer collar is situated between this reaction element and the retaining collar, the cable being able to slide inside this reaction element, - a link system between the retaining collar and the reaction element, to keep the reaction element at a given distance from the retaining collar, - at least one sacrificial spacer disposed between the reaction element and the hammer collar, configured to be deformed under the effect of the displacement of the hammer collar toward the reaction element upon the detensioning of the cable following the cutting thereof, and to absorb at least a part of the energy released by this detensioning.
An optical de-interleaver, comprising: a finite-impulse response filter having a first end and a second end, wherein the first end of the finite-impulse response filter is an input port for receiving a port multiplexed signal and the second end is an intermediate for providing filtered optical signals; and an infinite-impulse response filter having a first end and a second end, wherein the first end of the infinite-impulse response filter receives the filtered optical signals and the second end of the infinite-impulse response filter is an output port, and the infinite-impulse response filter having an associated first dispersion slope, the first dispersion slope having a sign and a magnitude, the finite-impulse response filter having an associated second dispersion slope having a sign opposite the sign of the first dispersion slope, and a magnitude of the second dispersion slope is substantially equal to the magnitude of the first dispersion slope. a finite-impulse response filter having a first end and a second end, wherein the first end of the finite-impulse response filter is an input port for receiving a port multiplexed signal and the second end is an intermediate for providing filtered optical signals; and an infinite-impulse response filter having a first end and a second end, wherein the first end of the infinite-impulse response filter receives the filtered optical signals and the second end of the infinite-impulse response filter is an output port, and the infinite-impulse response filter having an associated first dispersion slope, the first dispersion slope having a sign and a magnitude, the finite-impulse response filter having an associated second dispersion slope having a sign opposite the sign of the first dispersion slope, and a magnitude of the second dispersion slope is substantially equal to the magnitude of the first dispersion slope.
Modular surveillance system for an infrastructure and/or for a vehicle, comprising - at least two sensor modules (2a-2d) configured to collect respective sensor data (U, T, V, A) from respectively associated sensors (3a-3d); - at least one access module (5, 5a-5d) configured to access the sensor data (U, T, V, A); - a clock module being configured to provide a common time signal (t) at least to two of the sensor modules (2a-2d); with - the sensor modules (2a-2d) being configured to provide the sensor data (U, T, V, A) with a time stamp, wherein the time stamp is based on the common time signal (t); and - the access module (5, 5a-5d) being configured to forward the accessed sensor data (U, T, V, A) by taking into account the time stamp, characterised in that the sensor modules (2a-2d) and/or access modules (5, 5a-5d) have a common design so that different kind of sensor data (U, T, V, A) can be handled by different modules (2a-2d, 5, 5a-5d) using the common design enabling simplified measuring of a network load of the system, and the sensor modules (2a-2d) and/or the at least one access module (5, 5a-5d) can be configured during operation of the system to collect and/or access and forward sensor data (U, T, V, A) only with a data rate limited by a predetermined maximum data rate which is preset dynamically in dependence upon the network load of the system. - at least two sensor modules (2a-2d) configured to collect respective sensor data (U, T, V, A) from respectively associated sensors (3a-3d); - at least one access module (5, 5a-5d) configured to access the sensor data (U, T, V, A); - a clock module being configured to provide a common time signal (t) at least to two of the sensor modules (2a-2d); with - the sensor modules (2a-2d) being configured to provide the sensor data (U, T, V, A) with a time stamp, wherein the time stamp is based on the common time signal (t); and - the access module (5, 5a-5d) being configured to forward the accessed sensor data (U, T, V, A) by taking into account the time stamp, the sensor modules (2a-2d) and/or access modules (5, 5a-5d) have a common design so that different kind of sensor data (U, T, V, A) can be handled by different modules (2a-2d, 5, 5a-5d) using the common design enabling simplified measuring of a network load of the system, and the sensor modules (2a-2d) and/or the at least one access module (5, 5a-5d) can be configured during operation of the system to collect and/or access and forward sensor data (U, T, V, A) only with a data rate limited by a predetermined maximum data rate which is preset dynamically in dependence upon the network load of the system.
A charging circuit (100, 200) comprising: an input terminal (102, 202) for connecting to a power adapter; an output terminal (104b, 204b) for connection to a battery; a switching circuit (122', 222) connected between the input terminal and the output terminal, wherein the switching circuit comprises a buck converter; a switchable load (124, 224) connected to the input terminal; a voltage sensor (126, 226) connected to the switchable load; and a controller (128, 228) connected to selectively enable and disable the switching circuit, and to selectively operate the switchable load, wherein the controller: is configured to disable the switching circuit at a time subsequent to enabling the switching circuit; and is further configured to operate the switchable load to a connected state wherein the load is connected to the input terminal, wherein the voltage sensor is configured to take a measurement of the voltage at the load and the controller is further configured to enable the switching circuit if the measurement exceeds a predetermined value and further configured to maintain the switching circuit disabled, if the measurement falls below the predetermined value. an input terminal (102, 202) for connecting to a power adapter; an output terminal (104b, 204b) for connection to a battery; a switching circuit (122', 222) connected between the input terminal and the output terminal, wherein the switching circuit comprises a buck converter; a switchable load (124, 224) connected to the input terminal; a voltage sensor (126, 226) connected to the switchable load; and a controller (128, 228) connected to selectively enable and disable the switching circuit, and to selectively operate the switchable load, wherein the controller: is configured to disable the switching circuit at a time subsequent to enabling the switching circuit; and is further configured to operate the switchable load to a connected state wherein the load is connected to the input terminal, wherein the voltage sensor is configured to take a measurement of the voltage at the load and the controller is further configured to enable the switching circuit if the measurement exceeds a predetermined value and further configured to maintain the switching circuit disabled, if the measurement falls below the predetermined value. is configured to disable the switching circuit at a time subsequent to enabling the switching circuit; and is further configured to operate the switchable load to a connected state wherein the load is connected to the input terminal, wherein the voltage sensor is configured to take a measurement of the voltage at the load and the controller is further configured to enable the switching circuit if the measurement exceeds a predetermined value and further configured to maintain the switching circuit disabled, if the measurement falls below the predetermined value.
A can annular gas turbine combustion engine including a combustor can having a combustor central axis and a plurality of main swirlers (220, 230) with respective swirler axes disposed about and parallel to the combustor central axis, each main swirler (220, 230) delivering an air fuel mixture flowing therethrough about its swirler axis, the main swirlers (220, 230) being configured so that each main swirler (220, 230) imparts rotation to the air fuel mixture flowing therethrough in a direction opposite to that of adjacent main swirlers (220, 230), wherein the combustor can further comprises a central pilot swirler disposed on the combustor central axis, the central pilot swirler delivering an air fuel mixture flowing therethrough about the combustor central axis and wherein the combustor can further comprises fuel injectors configured to distribute a fuel in the air fuel mixture flowing through each main swirler (230, 230) in a concentration other than center rich.
A method for generating a filtered EMG signal, the method being executed by a signal processing unit, and comprising: obtaining a combined signal, wherein the combined signal comprises an ECG signal and an EMG signal; applying a first high pass filter to the combined signal; generating an ECG model signal based on the high pass filtered combined signal; generating a first EMG signal based on at least one of the ECG model signal and the high pass filtered combined signal; applying a second high pass filter to the first EMG signal to generate a second EMG signal and to the ECG model signal to generate a second ECG model signal; and generating a filtered EMG signal based on the second EMG signal and the second ECG model by way of a gating technique. obtaining a combined signal, wherein the combined signal comprises an ECG signal and an EMG signal; applying a first high pass filter to the combined signal; generating an ECG model signal based on the high pass filtered combined signal; generating a first EMG signal based on at least one of the ECG model signal and the high pass filtered combined signal; applying a second high pass filter to the first EMG signal to generate a second EMG signal and to the ECG model signal to generate a second ECG model signal; and generating a filtered EMG signal based on the second EMG signal and the second ECG model by way of a gating technique.
A method at an application host for sharing user settings across a plurality of web applications from a dialog provided in a first web application, comprising: providing the plurality of web applications to a first client machine, in communication with the application host; receiving a user command request to change the user settings identifying exposed settings for the plurality of web applications, wherein the exposed settings are user settings which a user is enabled to adjust and which are exposed on a per application basis; providing a dialog populated with the exposed settings on the first client machine within the first web application of the plurality of applications, wherein the dialog allows the user to browse and modify the exposed settings for the plurality of web applications, including and in addition to the first web application providing the dialog; receiving, via the dialog, updates to the exposed settings of a second web application of the plurality of web applications distinct from the first web application, wherein the updates do not affect the first web application; transmitting the updated exposed settings of the second web application to the first client machine for updating a first local cache on the first client machine according to the updates of the exposed settings of the second web application; and updating an application cache on the application host according to the updates of the exposed settings of the second web application. providing the plurality of web applications to a first client machine, in communication with the application host; receiving a user command request to change the user settings identifying exposed settings for the plurality of web applications, wherein the exposed settings are user settings which a user is enabled to adjust and which are exposed on a per application basis; providing a dialog populated with the exposed settings on the first client machine within the first web application of the plurality of applications, wherein the dialog allows the user to browse and modify the exposed settings for the plurality of web applications, including and in addition to the first web application providing the dialog; receiving, via the dialog, updates to the exposed settings of a second web application of the plurality of web applications distinct from the first web application, wherein the updates do not affect the first web application; transmitting the updated exposed settings of the second web application to the first client machine for updating a first local cache on the first client machine according to the updates of the exposed settings of the second web application; and updating an application cache on the application host according to the updates of the exposed settings of the second web application.