mhurhangee/ep-ind-claims huggingface dataset:
System for generating feedback on a subject's running style, the system comprising - a pressure sensitive surface with a plurality of pressure sensors for generating an electronic signal (Sp) as a function of a pressure exerted on said pressure sensitive surface; - a clock arranged for providing timestamp information; - a memory arranged for storage and retrieval of data; - a readout device arranged for reading out the plurality of pressure sensors and the clock and storing data in the memory comprising a time-dependent measurement of a moving center of pressure exerted by a subject's foot on the pressure sensitive surface, the moving center of pressure forming a pressure gait line (211,212) at least distinguished along a forward axis (Xf) of a running direction; - a processor arranged for ∘ reading the data from the memory; - a feedback device arranged for generating one or more of a visual, audio, or haptic feedback signal (Sf) and controlled by said processor, characterized in that the processor is arranged for o determining from the data a first timestamp at a first registered moment that the subject's foot starts touching the ground; o determining from the data a second timestamp at a moment that the center of pressure reaches the most backwards registered position along the gait line with respect to the forward axis (Xf); ∘ calculating a time difference between the first and second timestamps as a defined loading time (dT); and ∘ controlling the feedback device to generate a feedback signal (Sf) as a function of the loading time (dT). - a pressure sensitive surface with a plurality of pressure sensors for generating an electronic signal (Sp) as a function of a pressure exerted on said pressure sensitive surface; - a clock arranged for providing timestamp information; - a memory arranged for storage and retrieval of data; - a readout device arranged for reading out the plurality of pressure sensors and the clock and storing data in the memory comprising a time-dependent measurement of a moving center of pressure exerted by a subject's foot on the pressure sensitive surface, the moving center of pressure forming a pressure gait line (211,212) at least distinguished along a forward axis (Xf) of a running direction; - a processor arranged for ∘ reading the data from the memory; ∘ reading the data from the memory; - a feedback device arranged for generating one or more of a visual, audio, or haptic feedback signal (Sf) and controlled by said processor, o determining from the data a first timestamp at a first registered moment that the subject's foot starts touching the ground; o determining from the data a second timestamp at a moment that the center of pressure reaches the most backwards registered position along the gait line with respect to the forward axis (Xf); ∘ calculating a time difference between the first and second timestamps as a defined loading time (dT); and ∘ controlling the feedback device to generate a feedback signal (Sf) as a function of the loading time (dT).
A frame provided with at least one device for fastening thereof in a through orifice extending between two opposite faces (4, 5) of a panel, in particular such as a work surface, said frame being made up of a peripheral wall having an upper edge and a lower edge, said peripheral wall being able to cover the structure of the panel delimiting said through orifice, and its upper edge being provided with a rim able to rest against a first face of the panel around said through orifice, characterized in that it comprises at least one gripping member including at least one arm (80, 81) secured to a tongue extending in a plane perpendicular to said arm (80, 81), and an assembly means for fixing said tongue on the second face of the panel near the through orifice, said arm (80, 81) of the gripping member being arranged to exert on the one hand, on said peripheral wall, a force intended to press said peripheral wall against the structure of the panel delimiting said through orifice, and on the other hand, on a stop comprised by said peripheral wall, a force intended to press the rim of said frame against the first face of the panel, when said tongue is fastened on the second face of the panel.
A method for rapidly configuring a network element device for plug and play, wherein the method comprises: a. the network element device acquiring corresponding hardware information through a PnP plug-in server; b. updating corresponding software in the network element device based on the PnP plug-in server to obtain updated software; c. the network element device restarting corresponding hardware for the updated software based on the acquired hardware information; d. the PnP plug-in server determining corresponding configuration information for the hardware, and performing pre-commission for the re-restart of the hardware; and e. the network element device restarting the hardware again according to the configuration information determined in the pre-commission; f. the network element device achieving plug and play. a. the network element device acquiring corresponding hardware information through a PnP plug-in server; b. updating corresponding software in the network element device based on the PnP plug-in server to obtain updated software; c. the network element device restarting corresponding hardware for the updated software based on the acquired hardware information; d. the PnP plug-in server determining corresponding configuration information for the hardware, and performing pre-commission for the re-restart of the hardware; and e. the network element device restarting the hardware again according to the configuration information determined in the pre-commission; f. the network element device achieving plug and play.
An external force detecting system of a pillow, comprising: a body including a plurality of same air bags; a driver including a motor pump and a processor, the motor pump injecting air to expand the plurality of air bags or discharging air to contract the air bags, the processor controlling operations of the motor pump and detecting an air bag pressurized by an external force applied to the body; a plurality of air passages being identical in number to the plurality of air bags, the plurality of air passages having first ends individually connected to the air bags and second ends connected with the driver; and characterised in that the external force detecting system of a pillow further comprises an air pressure sensing unit disposed between the first ends and the motor pump to measure air pressures of the air bags into which the same amount of air has been injected, wherein the processor obtains a maximum air pressure and a minimum air pressure among the measured air pressures, compares a difference between the maximum air pressure and the minimum air pressure with a threshold to thereby determine whether the detected air bag is pressurized by a user. a body including a plurality of same air bags; a driver including a motor pump and a processor, the motor pump injecting air to expand the plurality of air bags or discharging air to contract the air bags, the processor controlling operations of the motor pump and detecting an air bag pressurized by an external force applied to the body; a plurality of air passages being identical in number to the plurality of air bags, the plurality of air passages having first ends individually connected to the air bags and second ends connected with the driver; and characterised in that the external force detecting system of a pillow further comprises an air pressure sensing unit disposed between the first ends and the motor pump to measure air pressures of the air bags into which the same amount of air has been injected, wherein the processor obtains a maximum air pressure and a minimum air pressure among the measured air pressures, compares a difference between the maximum air pressure and the minimum air pressure with a threshold to thereby determine whether the detected air bag is pressurized by a user.
A MEMS structure comprising: a stack comprising a substrate, a first etch-stop layer, a first semiconductor layer, a second etch-stop layer, a second semiconductor layer which are arranged one above the other in the order mentioned; a spring-and-mass system formed in the stack comprising at least one spring (53a-d; 56a-d) and an element suspended via the spring (53-d; 56a-d); and wherein the spring-and-mass system varies in thickness by removing, starting from a back side of the substrate facing away from the first etch-stop layer: at a first position, the substrate while leaving the first semiconductor layer; and at a second position, laterally different from the first position, the substrate, the first etch-stop layer and the first semiconductor layer; characterized in that, by removing different sequences of layers at different positions, the at least one spring (53a-d; 56a-d) varies in its thickness so as to form a stiffening spring (53a-d) in a first portion of the spring (53a-d; 56a-d) and a mechanically active region (56a-d) of the spring (53a-d; 56a-d) in a second portion of the spring (53a-d; 56a-d), the first portion being thicker than the second portion such that the mechanically active region (56a-d) comprises a smaller stiffness compared to the stiffening spring (53a-d). a stack comprising a substrate, a first etch-stop layer, a first semiconductor layer, a second etch-stop layer, a second semiconductor layer which are arranged one above the other in the order mentioned; a spring-and-mass system formed in the stack comprising at least one spring (53a-d; 56a-d) and an element suspended via the spring (53-d; 56a-d); and wherein the spring-and-mass system varies in thickness by removing, starting from a back side of the substrate facing away from the first etch-stop layer: at a first position, the substrate while leaving the first semiconductor layer; and at a second position, laterally different from the first position, the substrate, the first etch-stop layer and the first semiconductor layer; at a first position, the substrate while leaving the first semiconductor layer; and at a second position, laterally different from the first position, the substrate, the first etch-stop layer and the first semiconductor layer; characterized in that, by removing different sequences of layers at different positions, the at least one spring (53a-d; 56a-d) varies in its thickness so as to form a stiffening spring (53a-d) in a first portion of the spring (53a-d; 56a-d) and a mechanically active region (56a-d) of the spring (53a-d; 56a-d) in a second portion of the spring (53a-d; 56a-d), the first portion being thicker than the second portion such that the mechanically active region (56a-d) comprises a smaller stiffness compared to the stiffening spring (53a-d).
A method for sending and receiving information, wherein the method comprises: determining, by a network device, a backoff time for a current frame; performing, by the network device, a clear channel assessment, CCA, on a channel after the backoff time, wherein the CCA is started on a start moment of the CCA which is equal to an end moment of the backoff time, and obtaining an assessment result of the CCA; sending, by the network device, a pilot over the channel when the assessment result of the CCA is that the channel is in an idle state; and after sending the pilot, sending, by the network device, current-frame data to a terminal device over the channel, or receiving, over the channel, current-frame data sent by a terminal device; wherein after the determining, by a network device, a backoff time for a current frame, and before the performing a clear channel assessment CCA on a channel after the backoff time, the method further comprises: sending, by the network device, indication signaling to the terminal device, wherein the indication signaling is used to indicate the backoff time. determining, by a network device, a backoff time for a current frame; performing, by the network device, a clear channel assessment, CCA, on a channel after the backoff time, wherein the CCA is started on a start moment of the CCA which is equal to an end moment of the backoff time, and obtaining an assessment result of the CCA; sending, by the network device, a pilot over the channel when the assessment result of the CCA is that the channel is in an idle state; and after sending the pilot, sending, by the network device, current-frame data to a terminal device over the channel, or receiving, over the channel, current-frame data sent by a terminal device; wherein after the determining, by a network device, a backoff time for a current frame, and before the performing a clear channel assessment CCA on a channel after the backoff time, the method further comprises: sending, by the network device, indication signaling to the terminal device, wherein the indication signaling is used to indicate the backoff time.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from NH and N; the dashed line (----), in conjunction with the solid line to which it is parallel, represents an optional double bond; R 2 is selected from oxo or NH 2, with the proviso that, when R 2 is oxo, R 1 is NH and the bond represented by the dashed line (----), in conjunction with the solid line to which it is parallel, is a single bond; and with the proviso that, when R 2 is NH 2, R 1 is N and the bond represented by the dashed line (----), in conjunction with the solid line to which it is parallel, is a double bond; R 3 is selected from the group consisting of H and F; R 5 is selected from the group consisting of CN; unsubstituted C 1 -C 3 alkyl; C 1 -C 3 alkyl substituted with 1, 2, or 3 halogens selected from F and Cl; C 1 -C 3 alkyl substituted with 1 substituent selected from -S-CH 3 and -O-CH 3; C 2 -C 3 alkenyl; C 2 -C 3 alkynyl; unsubstituted C 3 -C 5 cycloalkyl; and C 3 -C 5 cycloalkyl substituted by 1, 2, or 3 substituents selected from F and CH 3; R 4' is H; and R 4 is H, R 1 is selected from NH and N; the dashed line (----), in conjunction with the solid line to which it is parallel, represents an optional double bond; R 2 is selected from oxo or NH 2, with the proviso that, when R 2 is oxo, R 1 is NH and the bond represented by the dashed line (----), in conjunction with the solid line to which it is parallel, is a single bond; and with the proviso that, when R 2 is NH 2, R 1 is N and the bond represented by the dashed line (----), in conjunction with the solid line to which it is parallel, is a double bond; R 3 is selected from the group consisting of H and F; R 5 is selected from the group consisting of CN; unsubstituted C 1 -C 3 alkyl; C 1 -C 3 alkyl substituted with 1, 2, or 3 halogens selected from F and Cl; C 1 -C 3 alkyl substituted with 1 substituent selected from -S-CH 3 and -O-CH 3; C 2 -C 3 alkenyl; C 2 -C 3 alkynyl; unsubstituted C 3 -C 5 cycloalkyl; and C 3 -C 5 cycloalkyl substituted by 1, 2, or 3 substituents selected from F and CH 3; R 4' is H; and R 4 is H,
Electronic battery sensor comprising at least one first capture means for capturing measured values and a battery model for determining an internal resistance (Ri) of a battery, - wherein each measured value comprises contemporaneous information relating to at least two corresponding measurement variables, namely the battery current I Batt and the battery voltage (U Batt), and - wherein two successive measured values form one measurement pair, characterized in that the battery sensor comprises at least one selection means which is configured to select at least one measurement pair as a selection pair from a particular number of measurement pairs and to make it available to the battery model for the purpose of determining the internal resistance (R i), - wherein the number of measurement pairs is greater than the number of selection pairs. - wherein each measured value comprises contemporaneous information relating to at least two corresponding measurement variables, namely the battery current I Batt and the battery voltage (U Batt), and - wherein two successive measured values form one measurement pair, characterized in that the battery sensor comprises at least one selection means which is configured to select at least one measurement pair as a selection pair from a particular number of measurement pairs and to make it available to the battery model for the purpose of determining the internal resistance (R i), - wherein the number of measurement pairs is greater than the number of selection pairs.
A method for transmitting a frame, the method comprises: generating, by an access point, an omni portion of the frame, the omni portion including a non-beamformed long training field and a signal field, the non-beamformed long training field including channel estimation information used to decode the signal field, the non-beamformed long training field configured to be transmitted through one of multiple antennas and multiple streams; generating, by the access point, a multi-stream portion of the frame, the multi-stream portion including a data field and a multi-stream long training field, the multi-stream long training field including station-specific decoding information for station-specific data in the data field; applying, by the access point, a beamforming indicator to the signal field of the omni portion, wherein the beamforming indicator is used to indicate a beamform status of the multi-stream portion, and wherein the beamform status indicates whether the multi-stream portion is beamformed or non-beamformed; and transmitting, by the access point, the frame. generating, by an access point, an omni portion of the frame, the omni portion including a non-beamformed long training field and a signal field, the non-beamformed long training field including channel estimation information used to decode the signal field, the non-beamformed long training field configured to be transmitted through one of multiple antennas and multiple streams; generating, by the access point, a multi-stream portion of the frame, the multi-stream portion including a data field and a multi-stream long training field, the multi-stream long training field including station-specific decoding information for station-specific data in the data field; applying, by the access point, a beamforming indicator to the signal field of the omni portion, wherein the beamforming indicator is used to indicate a beamform status of the multi-stream portion, and wherein the beamform status indicates whether the multi-stream portion is beamformed or non-beamformed; and transmitting, by the access point, the frame.
A tower top device, wherein the tower top device is connected between an antenna and a first remote radio unit, RRU, and at least one further RRU and is configured to perform passive intermodulation, PIM, cancellation, and the tower top device comprises: a model processing circuit, configured to receive a digital transmit signal and generate a cancellation signal based on the digital transmit signal and a non-linear model, wherein the non-linear model is used to represent a non-linear relationship between a source signal generating PIM interference and a PIM interference signal, and the digital transmit signal is generated based on a combination of respective radio frequency signals sent by the first RRU and the at least one further RRU to the antenna; and a cancellation circuit, connected to the model processing circuit, and configured to obtain a digital received signal and the cancellation signal generated by the model processing circuit, and perform PIM cancellation on the digital received signal based on the cancellation signal, wherein the digital received signal is generated based on a combination of respective analog received signals for the first RRU and the at least one further RRU received by the antenna. a model processing circuit, configured to receive a digital transmit signal and generate a cancellation signal based on the digital transmit signal and a non-linear model, wherein the non-linear model is used to represent a non-linear relationship between a source signal generating PIM interference and a PIM interference signal, and the digital transmit signal is generated based on a combination of respective radio frequency signals sent by the first RRU and the at least one further RRU to the antenna; and a cancellation circuit, connected to the model processing circuit, and configured to obtain a digital received signal and the cancellation signal generated by the model processing circuit, and perform PIM cancellation on the digital received signal based on the cancellation signal, wherein the digital received signal is generated based on a combination of respective analog received signals for the first RRU and the at least one further RRU received by the antenna.
Method for activating a door or window closer which comprises an energy store for providing a closing force for closing a rotatable and/or displaceable door leaf or window casement, a damping device which counteracts the closing force and has an electric motor which can be operated as a generator, and an electronic control device for driving the electric motor, wherein a motor shaft of the electric motor is coupled to the leaf or casement by means of at least one transmission element (7, 26, 27) and therefore can be rotated by moving the leaf or casement, characterized in that the leaf or casement is manually opened at least once in a learning process, the angular position of the motor shaft is detected during the manual opening, a functional relationship between the angular position of the motor shaft and an angular position of the rotatable leaf or casement is determined at least over a region of the opening width of the leaf or casement on the basis of the detected angular position of the motor shaft, and the functional relationship is automatically used as a basis for subsequently driving the electric motor for damping the closing movement of the leaf or casement, wherein the leaf or casement is manually opened up to a reference opening position in the learning process, the angular position of the motor shaft is detected at the reference opening position of the leaf or casement and the functional relationship is selected from a set of predetermined reference functions, which correspond to different designs and/or different installation types of the door or window closer, depending on the angular position of the motor shaft detected at the reference opening position. the leaf or casement is manually opened at least once in a learning process, the angular position of the motor shaft is detected during the manual opening, a functional relationship between the angular position of the motor shaft and an angular position of the rotatable leaf or casement is determined at least over a region of the opening width of the leaf or casement on the basis of the detected angular position of the motor shaft, and the functional relationship is automatically used as a basis for subsequently driving the electric motor for damping the closing movement of the leaf or casement, wherein the leaf or casement is manually opened up to a reference opening position in the learning process, the angular position of the motor shaft is detected at the reference opening position of the leaf or casement and the functional relationship is selected from a set of predetermined reference functions, which correspond to different designs and/or different installation types of the door or window closer, depending on the angular position of the motor shaft detected at the reference opening position.
Arrangement comprising star point wiring and/or a star point connection of the stator windings of an electric motor, wherein a first crimp sleeve is pushed onto the star-point end of each winding wire of each stator winding and connected, wherein the first crimp sleeves are connected to second crimp sleeves by means of respective welded connections, wherein the second crimp sleeves are pushed on an electrical line in series to form the star point connection and are connected to the electrical line.