mhurhangee/ep-ind-claims huggingface dataset:
An electronic apparatus, comprising: a speaker; an audio signal processor, coupled to the speaker, for sensing a variation of an acoustic condition of the speaker, wherein the acoustic condition is determined by the audio signal processor according to an impedance of the speaker or an excursion of the speaker; and an application processor, coupled to the audio signal processor, characterised in that the application processor is configured for: generating a logic waveform signal, having states low and high, in response to the sensed variation of the acoustic condition; comparing the logic waveform signal with a defined pattern, for determining whether the logic waveform signal and the defined pattern are matched or not; interpreting, by the application processor, the logic waveform signal as a control signal when the logic waveform signal and the defined pattern are matched; and activating at least one application program or at least one function corresponding to the control signal. a speaker; an audio signal processor, coupled to the speaker, for sensing a variation of an acoustic condition of the speaker, wherein the acoustic condition is determined by the audio signal processor according to an impedance of the speaker or an excursion of the speaker; and an application processor, coupled to the audio signal processor, characterised in that the application processor is configured for: generating a logic waveform signal, having states low and high, in response to the sensed variation of the acoustic condition; comparing the logic waveform signal with a defined pattern, for determining whether the logic waveform signal and the defined pattern are matched or not; interpreting, by the application processor, the logic waveform signal as a control signal when the logic waveform signal and the defined pattern are matched; and activating at least one application program or at least one function corresponding to the control signal. generating a logic waveform signal, having states low and high, in response to the sensed variation of the acoustic condition; comparing the logic waveform signal with a defined pattern, for determining whether the logic waveform signal and the defined pattern are matched or not; interpreting, by the application processor, the logic waveform signal as a control signal when the logic waveform signal and the defined pattern are matched; and activating at least one application program or at least one function corresponding to the control signal.
A sheet forming tool for the manufacture of a corrugated sheet having a lower tool element and an upper tool element, each of the upper tool element and the lower tool element having a front side (23, 33, 41) and a rear side (25, 35, 42), wherein the lower tool element comprises a first base element (2, 4, 6, 8) and a first finger element (3, 5, 7, 9) projecting from said first base element (2, 4, 6, 8), the first finger element (3, 5, 7, 9) forming a first ridge (22, 24, 26, 28) for forming a corrugation peak in the sheet, wherein the upper tool element comprises a second base element (12, 14) and a second finger element (13, 15) projecting from said second base element (12, 14), the second finger element (13, 15) forming a second ridge (32, 34) for forming a corrugation trough in said sheet, with the first ridge (22, 24, 26, 28) being arranged opposite to the second ridge (32, 34) and the first ridge (22, 24, 26, 28) being offset from the second ridge (32, 34) so as to allow for an engagement of the first finger element (3, 5, 7, 9) and the second finger element (13, 15) in an engaged position, and each of the first ridge (22, 24, 26, 28) and second ridge (32, 34) comprises a main portion and an end portion (11, 21) and the angle ß between each of the first ridge (22, 24, 26, 28) and second ridge (32, 34) in the main portion and the corresponding front side (23, 33, 41) being at least partly different from the angle between each of the first ridge (22, 24, 26, 28) and second ridge (32, 34) in the end portion (11, 21) and the corresponding front side, characterized in that a space is provided between the first finger element (3, 5, 7, 9) and the neighbouring second finger element (13, 15) in the engaged position.
Spectroscopic measuring head for forestry, agricultural and food applications, comprising: a housing having a window and a spectrometer which is arranged inside the housing and which comprises a dispersive element and a sensor, a first light source for exposing a sample to light which, after it has been transmitted and/or reflected by the sample, passes through the window into the spectrometer, a standard that can be exposed to light for referencing the spectrometer, wherein the standard can be exposed to light by a second light source arranged in the housing, a partly transmissive mirror is arranged on the window or between the window and the spectrometer and reflects light reflected by the standard into the spectrometer, and a filter having electrically controllable transmissivity is arranged between the second light source and the spectrometer, characterized in that the filter is arranged between the mirror and the standard. a housing having a window and a spectrometer which is arranged inside the housing and which comprises a dispersive element and a sensor, a first light source for exposing a sample to light which, after it has been transmitted and/or reflected by the sample, passes through the window into the spectrometer, a standard that can be exposed to light for referencing the spectrometer, wherein the standard can be exposed to light by a second light source arranged in the housing, a partly transmissive mirror is arranged on the window or between the window and the spectrometer and reflects light reflected by the standard into the spectrometer, and a filter having electrically controllable transmissivity is arranged between the second light source and the spectrometer, characterized in that the filter is arranged between the mirror and the standard.
A robot cleaner comprising: a cleaner main body defining an external appearance of the robot cleaner; a fan unit mounted in the cleaner main body for generating suction force; a suction unit provided in the cleaner main body and having a suction port for suctioning air containing dust via driving of the fan unit and a first discharge port for discharging the air containing the dust; characterized in that the robot cleaner further comprises a second discharge port for discharging the air containing the dust; a first guide member coupled to the first discharge port; a second guide member coupled to the second discharge port; and a cyclone unit for separating the dust from the air suctioned through the suction port using centrifugal force, the cyclone unit having a first communication hole for communicating with the first guide member and a second communication hole for communicating with the second guide member, wherein the air guided by the first guide member and the air guided by the second guide member are mixed with each other in the cyclone unit. a cleaner main body defining an external appearance of the robot cleaner; a fan unit mounted in the cleaner main body for generating suction force; a suction unit provided in the cleaner main body and having a suction port for suctioning air containing dust via driving of the fan unit and a first discharge port for discharging the air containing the dust; characterized in that the robot cleaner further comprises a second discharge port for discharging the air containing the dust; a first guide member coupled to the first discharge port; a second guide member coupled to the second discharge port; and a cyclone unit for separating the dust from the air suctioned through the suction port using centrifugal force, the cyclone unit having a first communication hole for communicating with the first guide member and a second communication hole for communicating with the second guide member, wherein the air guided by the first guide member and the air guided by the second guide member are mixed with each other in the cyclone unit.
A trimming machine comprising: an electric motor; a blade drive gear rotationally driven by the electric motor; an eccentric cam provided in the gear; and a pair of blades (21, 22) relatively slidably facing and contacting each other, wherein: the eccentric cam is adapted to reciprocate the pair of blades (21, 22) in relatively opposite directions along a longitudinal direction of the blades (21, 22), thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades (21, 22), characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades (21, 22), the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades (21, 22) are locked. an electric motor; a blade drive gear rotationally driven by the electric motor; an eccentric cam provided in the gear; and a pair of blades (21, 22) relatively slidably facing and contacting each other, wherein: the eccentric cam is adapted to reciprocate the pair of blades (21, 22) in relatively opposite directions along a longitudinal direction of the blades (21, 22), thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades (21, 22), characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades (21, 22), the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades (21, 22) are locked. the eccentric cam is adapted to reciprocate the pair of blades (21, 22) in relatively opposite directions along a longitudinal direction of the blades (21, 22), thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades (21, 22), characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades (21, 22), the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades (21, 22) are locked.
Method for configuring an operating system on a computing node in a group of a plurality of computing nodes in a network also comprising a central server, comprising: - a transmission, from one of the computing nodes in said group to the central server, of authentication data specific to said computing node, - a transmission (8, 9), from the central server to said computing node, of configuration data specific to said computing node, - a storage, at said computing node, of said specific configuration data, characterised in that it also comprises: - an establishment of an access, to the central server by said computing node, to data of the operating system common to all the computing nodes in said group and stored at the central server, - a starting up of said computing node on an operating system that is specific to said computing node and that comprises firstly said specific configuration data stored at said computing node and secondly said common data of the operating system directly accessible at the central server to said computing node while remaining stored at the central server. - a transmission, from one of the computing nodes in said group to the central server, of authentication data specific to said computing node, - a transmission (8, 9), from the central server to said computing node, of configuration data specific to said computing node, - a storage, at said computing node, of said specific configuration data, - an establishment of an access, to the central server by said computing node, to data of the operating system common to all the computing nodes in said group and stored at the central server, - a starting up of said computing node on an operating system that is specific to said computing node and that comprises firstly said specific configuration data stored at said computing node and secondly said common data of the operating system directly accessible at the central server to said computing node while remaining stored at the central server.
Connection unit comprising a pressure measuring cell, wherein the pressure measuring cell detects, in particular, a pressure of a hydraulic block and has at least one connection point via which at least one electrical output signal of the pressure measuring cell can be tapped off, comprising a printed circuit board and comprising a circuit carrier on which at least the printed circuit board with an electronic component is arranged, wherein the circuit carrier, for the purpose of contact to be made with the connection point by the electronic component, has at least one three-dimensional, external conductor track, wherein at least one contact means is provided, via which contact means an output signal of the electronic component can be tapped off, and wherein the electronic component is connected to the contact means via the at least one three-dimensional, external conductor track of the circuit carrier, characterized in that the circuit carrier is of injection-moulded design and is mounted onto the pressure measuring cell, wherein the circuit carrier is of substantially cylindrical design with a lower cylindrical region and an upper cylindrical region, which lower cylindrical region and upper cylindrical region are connected to one another via a rectangular middle section, and wherein an inner contour of the lower cylindrical region of the circuit carrier, for mechanical connection purposes, is matched to an outer contour of the pressure measuring cell and at least partially surrounds the said pressure measuring cell.
Sample Hose drum assembly with the following features: - a drum body has a drum axis and drum body discs (3, 4) arranged on the drum axis; - the drum body is rotatably mounted on its drum axis and is intended to receive a hose of the hose drum arrangement in a winding manner; - the drum axis is formed as a fluid line to which the hose to be wound is connected; - the rotatable drum axis is connected via a rotary feedthrough to a non-rotatable feed line of the hose drum arrangement; - a heating means can be supplied with electrical energy by means of a slip ring arrangement of the hose drum arrangement; - the heating means is led out of the holes on one side of the drum body disc (3, 4), characterised in that - the heating means is embedded in the jacket of the hose, wherein the heating means, in its continuation coming from the hose, passes through the drum body disc (3, 4) and runs on the outside of the drum axis to a part of the slip ring arrangement that rotates with the drum axis. - a drum body has a drum axis and drum body discs (3, 4) arranged on the drum axis; - the drum body is rotatably mounted on its drum axis and is intended to receive a hose of the hose drum arrangement in a winding manner; - the drum axis is formed as a fluid line to which the hose to be wound is connected; - the rotatable drum axis is connected via a rotary feedthrough to a non-rotatable feed line of the hose drum arrangement; - a heating means can be supplied with electrical energy by means of a slip ring arrangement of the hose drum arrangement; - the heating means is led out of the holes on one side of the drum body disc (3, 4), - the heating means is embedded in the jacket of the hose, wherein the heating means, in its continuation coming from the hose, passes through the drum body disc (3, 4) and runs on the outside of the drum axis to a part of the slip ring arrangement that rotates with the drum axis.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: detecting (601, 701) a first obstacle colliding with the ADV; determining whether a time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold; determining (606, 703) a minimum deceleration to be zero in response to determining that the time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold, wherein the minimum deceleration is required for the ADV to avoid colliding with a second obstacle within a predetermined proximity of a moving direction; generating (607, 704) a brake command of "zero" based on the minimum deceleration; and applying (608, 705) the brake command of "zero" to the ADV, such that the ADV slides accordingly to absorb the energy from a collision with the first obstacle and softens an impact of the collision with the first obstacle. detecting (601, 701) a first obstacle colliding with the ADV; determining whether a time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold; determining (606, 703) a minimum deceleration to be zero in response to determining that the time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold, wherein the minimum deceleration is required for the ADV to avoid colliding with a second obstacle within a predetermined proximity of a moving direction; generating (607, 704) a brake command of "zero" based on the minimum deceleration; and applying (608, 705) the brake command of "zero" to the ADV, such that the ADV slides accordingly to absorb the energy from a collision with the first obstacle and softens an impact of the collision with the first obstacle.
A method of filling an electrorheological fluid structure of an incline adjuster for a sole structure for footwear, the method comprising: introducing electrorheological fluid into an interior volume of a housing through a first channel connecting the interior volume with an exterior of the housing, while allowing air to exit through a second channel connecting the interior volume with the exterior of the housing, until the electrorheological fluid at least partially fills the first channel and the second channel; subjecting the electrorheological fluid within the housing to a sub-atmospheric pressure (P SA); and sealing the interior volume relative to the exterior of the housing, wherein the sealing comprises welding across a portion of the first channel containing a portion of the electrorheological fluid and welding across a portion of the second channel containing a portion of the electrorheological fluid. introducing electrorheological fluid into an interior volume of a housing through a first channel connecting the interior volume with an exterior of the housing, while allowing air to exit through a second channel connecting the interior volume with the exterior of the housing, until the electrorheological fluid at least partially fills the first channel and the second channel; subjecting the electrorheological fluid within the housing to a sub-atmospheric pressure (P SA); and sealing the interior volume relative to the exterior of the housing, wherein the sealing comprises welding across a portion of the first channel containing a portion of the electrorheological fluid and welding across a portion of the second channel containing a portion of the electrorheological fluid.
A method used in a wireless communication system, the method comprising: sending to a receiving device from a transmitting device an indication of a Radio Link Control, RLC re-transmission scheme selected from a plurality of RLC re-transmission schemes; and using the selected RLC re-transmission scheme at the transmitting device, wherein the plurality of re-transmission schemes includes a receiver side scheme and a transmitter side scheme; wherein the receiver side scheme includes, detecting, at the receiver, a gap in RLC Protocol Data Unit, PDU sequence numbers; associating a timer with the gap; and starting the timer when the gap is detected; and wherein the transmitter side scheme includes, detecting a gap in a RLC PDU sequence; monitoring all HARQ channels for a period of time to determine if a predetermined bit has changed; and determining if a transmission is lost. sending to a receiving device from a transmitting device an indication of a Radio Link Control, RLC re-transmission scheme selected from a plurality of RLC re-transmission schemes; and using the selected RLC re-transmission scheme at the transmitting device, wherein the plurality of re-transmission schemes includes a receiver side scheme and a transmitter side scheme; wherein the receiver side scheme includes, detecting, at the receiver, a gap in RLC Protocol Data Unit, PDU sequence numbers; associating a timer with the gap; and starting the timer when the gap is detected; detecting, at the receiver, a gap in RLC Protocol Data Unit, PDU sequence numbers; associating a timer with the gap; and starting the timer when the gap is detected; and wherein the transmitter side scheme includes, detecting a gap in a RLC PDU sequence; monitoring all HARQ channels for a period of time to determine if a predetermined bit has changed; and determining if a transmission is lost. detecting a gap in a RLC PDU sequence; monitoring all HARQ channels for a period of time to determine if a predetermined bit has changed; and determining if a transmission is lost.
A drone, comprising: a frame; at least one propeller for generating aerodynamic lift; a controller for controlling the propeller; an article containment area for containing an article to be carried by the drone, wherein the article containment area includes a dynamic support surface, formed by a conveyor belt trained around reversing elements mounted on shafts, for supporting the article and allowing the article to move into, out of or through the article containment area, wherein an upper span of the conveyor belt forms a floor of the article containment area; and legs extending down from the frame; characterised in that the legs are mounted to the shafts to connect the article containment area to the frame. a frame; at least one propeller for generating aerodynamic lift; a controller for controlling the propeller; an article containment area for containing an article to be carried by the drone, wherein the article containment area includes a dynamic support surface, formed by a conveyor belt trained around reversing elements mounted on shafts, for supporting the article and allowing the article to move into, out of or through the article containment area, wherein an upper span of the conveyor belt forms a floor of the article containment area; and legs extending down from the frame; characterised in that the legs are mounted to the shafts to connect the article containment area to the frame.
A method comprising: processing audio signals to rotate a sound scene so that a user selected sound object is automatically at a first position within the rotated sound scene; enabling user editing of at least one audio property of the selected sound object to create a modified sound object; and causing rendering of the sound scene using the modified sound object. processing audio signals to rotate a sound scene so that a user selected sound object is automatically at a first position within the rotated sound scene; enabling user editing of at least one audio property of the selected sound object to create a modified sound object; and causing rendering of the sound scene using the modified sound object.