mhurhangee/ep-ind-claims huggingface dataset:
A headphone, comprising: a housing; an acoustic driver within the housing and configured to generate acoustic sound waves responsive to an input signal; a tactile vibration driver within the housing and configured to generate tactile vibration sufficient to be felt by a user responsive to the input signal; a noise cancellation unit (154; 554; 654, 655); and a filter configured to filter the input signal into a filtered input signal and to send said filtered input signal directly to the tactile vibration driver to generate tactile vibration on the one hand and to the noise cancellation unit (154; 554; 654, 655) on the other hand; the noise cancellation unit (154; 554; 654, 655) being coupled between the filter and the acoustic driver and being configured to: generate an adjustment signal (144; 544) according to a predetermined transfer function; and adjust the input signal responsive to the adjustment signal (144; 544) to transmit an output signal for reproduction by the acoustic driver; characterized in that the predetermined transfer function is determined by comparing the filtered input signal to an incidental acoustic noise generated by the tactile vibrations of the tactile vibration driver. a housing; an acoustic driver within the housing and configured to generate acoustic sound waves responsive to an input signal; a tactile vibration driver within the housing and configured to generate tactile vibration sufficient to be felt by a user responsive to the input signal; a noise cancellation unit (154; 554; 654, 655); and a filter configured to filter the input signal into a filtered input signal and to send said filtered input signal directly to the tactile vibration driver to generate tactile vibration on the one hand and to the noise cancellation unit (154; 554; 654, 655) on the other hand; the noise cancellation unit (154; 554; 654, 655) being coupled between the filter and the acoustic driver and being configured to: generate an adjustment signal (144; 544) according to a predetermined transfer function; and adjust the input signal responsive to the adjustment signal (144; 544) to transmit an output signal for reproduction by the acoustic driver; characterized in that the predetermined transfer function is determined by comparing the filtered input signal to an incidental acoustic noise generated by the tactile vibrations of the tactile vibration driver. generate an adjustment signal (144; 544) according to a predetermined transfer function; and adjust the input signal responsive to the adjustment signal (144; 544) to transmit an output signal for reproduction by the acoustic driver; characterized in that the predetermined transfer function is determined by comparing the filtered input signal to an incidental acoustic noise generated by the tactile vibrations of the tactile vibration driver.
A locking device assembly (10, 210) extending along a main axis and comprising: - a nut comprising first and second coaxial, oppositely directed internal threads; and - a ring; an inner surface of said ring comprising a third internal thread; the first and third internal threads being adapted to mate with a single first external thread; an outer surface of said ring comprising a second external thread adapted to mate with the second internal thread of the nut; characterised in that: - a portion of the ring, projecting radially outwards from the second external thread, comprises at least through light passing through it along the main axis; and - a surface of the nut, perpendicular to the main axis, comprises at least one visual marking, said at least one visual marking being configured to face the at least one light when the nut and ring are in an installation position, and away from said at least one hole when the nut and ring are out of said installation position. - a nut comprising first and second coaxial, oppositely directed internal threads; and - a ring; an inner surface of said ring comprising a third internal thread; the first and third internal threads being adapted to mate with a single first external thread; an outer surface of said ring comprising a second external thread adapted to mate with the second internal thread of the nut; characterised in that: - a portion of the ring, projecting radially outwards from the second external thread, comprises at least through light passing through it along the main axis; and - a surface of the nut, perpendicular to the main axis, comprises at least one visual marking, - a portion of the ring, projecting radially outwards from the second external thread, comprises at least through light passing through it along the main axis; and - a surface of the nut, perpendicular to the main axis, comprises at least one visual marking, said at least one visual marking being configured to face the at least one light when the nut and ring are in an installation position, and away from said at least one hole when the nut and ring are out of said installation position.
A crane that controls an actuator of a boom based on a target speed signal related to a moving direction and a speed of a load suspended from the boom by a wire rope (14,16), the crane comprising: a swivel angle detection means of the boom; a luffing angle detection means of the boom; an extension/retraction length detection means of the boom; a load position detection means (7b,9b) that detects a current position of the load relative to a reference position; and a control apparatus, wherein the control apparatus converts the target speed signal into a target position of the load relative to the reference position, computes a current position of a boom tip relative to the reference position from a swivel angle detected by the swivel angle detection means, a luffing angle detected by the luffing angle detection means, and an extension/retraction length detected by the extension/retraction length detection means, computes a let-out amount of the wire rope (14,16) from the current position of the load detected by the load position detection means (7b,9b) and the current position of the boom tip, computes, from the current position of the load and the target position of the load, a direction vector of the wire rope (14,16), computes a target position of the boom tip for the target position of the load from the let-out amount of the wire rope (14,16) and the direction vector of the wire rope (14,16), and generates an operation signal for the actuator based on the target position of the boom tip. a swivel angle detection means of the boom; a luffing angle detection means of the boom; an extension/retraction length detection means of the boom; a load position detection means (7b,9b) that detects a current position of the load relative to a reference position; and a control apparatus, wherein the control apparatus converts the target speed signal into a target position of the load relative to the reference position, computes a current position of a boom tip relative to the reference position from a swivel angle detected by the swivel angle detection means, a luffing angle detected by the luffing angle detection means, and an extension/retraction length detected by the extension/retraction length detection means, computes a let-out amount of the wire rope (14,16) from the current position of the load detected by the load position detection means (7b,9b) and the current position of the boom tip, computes, from the current position of the load and the target position of the load, a direction vector of the wire rope (14,16), computes a target position of the boom tip for the target position of the load from the let-out amount of the wire rope (14,16) and the direction vector of the wire rope (14,16), and generates an operation signal for the actuator based on the target position of the boom tip.
An impeller comprising: a plurality of longitudinally extending blades, each having a first edge and a second edge; a cover member having an inlet orifice and extending adjacently along at least a portion of the first edge of each of the plurality of blades; and a hub member extending adjacently along only a portion of the second edge of each of the plurality of blades; characterised in that the cover member, the plurality of blades and the hub member are milled from a single, metal-based material of construction to form an integral, uniform structure. a plurality of longitudinally extending blades, each having a first edge and a second edge; a cover member having an inlet orifice and extending adjacently along at least a portion of the first edge of each of the plurality of blades; and a hub member extending adjacently along only a portion of the second edge of each of the plurality of blades;
A decoding apparatus, comprising: - at least one processor; and - at least one memory including computer program code; wherein the at least one processor and the at least one memory are configured to cause the decoding apparatus to at least perform: - receiving a skeleton file from an encoding apparatus via a communication network, the skeleton file including at least one identification corresponding with at least one representation of at least one object and including a residual, wherein the at least one object relates to a media file patch of a media file and wherein the residual represents a difference between the media file patch and a representation based on the at least one representation; - decoding the skeleton file using the at least one identification for looking up the at least one corresponding representation in a dictionary of a storage medium; - extracting from the skeleton file the residual; - decoding the residual; and - rendering the media file patch based on the looked-up at least one corresponding representation and the decoded residual. - at least one processor; and - at least one memory including computer program code; - receiving a skeleton file from an encoding apparatus via a communication network, the skeleton file including at least one identification corresponding with at least one representation of at least one object and including a residual, wherein the at least one object relates to a media file patch of a media file and wherein the residual represents a difference between the media file patch and a representation based on the at least one representation; - decoding the skeleton file using the at least one identification for looking up the at least one corresponding representation in a dictionary of a storage medium; - extracting from the skeleton file the residual; - decoding the residual; and - rendering the media file patch based on the looked-up at least one corresponding representation and the decoded residual.
A display device comprising: a base layer comprising a display area and a non-display area; a circuit layer (DP-CL) disposed on the base layer; a device layer (DP-OLED) disposed on the circuit layer (DP-CL) on the display area of the base layer; an encapsulation layer covering the device layer (DP-OLED); a plurality of sensors disposed on the encapsulation layer; first pads and second pads disposed on the non-display area of the base layer and arranged in a first direction; a plurality of signal lines (TL1, TL2) electrically connected the second pads, respectively; and a sub layer disposed on the non-display area of the base layer, disposed between the plurality of sensors and the first and second pads (PD1, PD2), extending in the first direction, and comprising a first bank part (BANK1) and a second bank part (BANK2); wherein the first bank part (BANK1) and the second bank part (BANK2) both comprise a first layer; wherein the first bank part (BANK1) further comprises a second layer disposed on the first layer, and wherein the plurality of signal lines (TL1, TL2) are disposed over the first layer of the second bank part (BANK2) and extended in a second direction intersecting with the first direction over the first layer of the second bank part (BANK2). a base layer comprising a display area and a non-display area; a circuit layer (DP-CL) disposed on the base layer; a device layer (DP-OLED) disposed on the circuit layer (DP-CL) on the display area of the base layer; an encapsulation layer covering the device layer (DP-OLED); a plurality of sensors disposed on the encapsulation layer; first pads and second pads disposed on the non-display area of the base layer and arranged in a first direction; a plurality of signal lines (TL1, TL2) electrically connected the second pads, respectively; and a sub layer disposed on the non-display area of the base layer, disposed between the plurality of sensors and the first and second pads (PD1, PD2), extending in the first direction, and comprising a first bank part (BANK1) and a second bank part (BANK2); wherein the first bank part (BANK1) and the second bank part (BANK2) both comprise a first layer; wherein the first bank part (BANK1) further comprises a second layer disposed on the first layer, and wherein the plurality of signal lines (TL1, TL2) are disposed over the first layer of the second bank part (BANK2) and extended in a second direction intersecting with the first direction over the first layer of the second bank part (BANK2).
A safety apparatus for a vehicle, in particular a driverless vehicle, having at least one optoelectronic sensor for detecting objects in a monitored zone, having a protected field determination unit for the dynamic definition of a protected field within the monitored zone, having a protected field monitoring unit for recognizing unpermitted intrusions into the protected field as a protected field incursion and having a safety output for outputting an emergency stop signal or braking signal to a vehicle control of the vehicle in the case of a protected field incursion, characterized in that the protected field determination unit is configured to define the protected field with reference to an emergency stop trajectory and to also consider a curve of the emergency stop trajectory, and in that a communication connection is provided between the vehicle control and the protected field determination unit to transmit the emergency stop trajectory from the vehicle control to the protected field determination unit, wherein the emergency stop trajectory is that trajectory the vehicle control chooses for the vehicle in case of an emergency stop.
An address management method which is used when a mobile terminal accesses a service from a WLAN access network, the service being provided in a 3GPP network via the 3GPP network, comprising: a sending step in which the mobile terminal sends a tunnel setup request message from the WLAN access network to a network entity; and an allocation step in which the network entity receives the tunnel setup request message, and allocates an address for use by the mobile terminal characterized by the network entity being located in the 3GPP network, the tunnel setup request message including a service request identifier indicating the service that the mobile terminal wants to access and a mobile terminal identifier; and the network entity allocating the address for use by the mobile terminal to access the requested service based on the service request identifier and the mobile terminal identifier. a sending step in which the mobile terminal sends a tunnel setup request message from the WLAN access network to a network entity; and an allocation step in which the network entity receives the tunnel setup request message, and allocates an address for use by the mobile terminal characterized by the network entity being located in the 3GPP network, the tunnel setup request message including a service request identifier indicating the service that the mobile terminal wants to access and a mobile terminal identifier; and the network entity allocating the address for use by the mobile terminal to access the requested service based on the service request identifier and the mobile terminal identifier.
A monitoring system for an escalator, the monitoring system comprising: a local gateway device; an analytic engine in communication with the local gateway device through a cloud computing network; a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol, characterized in that the sensing apparatus comprises: an inertial measurement unit sensor configured to detect acceleration data of the escalator; wherein at least one of the sensing apparatus, the local gateway device, and the analytic engine is configured to determine an operating mode of the escalator in response to at least the acceleration data; and an application for a computing device, the application being configured to display weather data simultaneously with the operating mode of the escalator on a display device of the computing device. a local gateway device; an analytic engine in communication with the local gateway device through a cloud computing network; a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol, characterized in that the sensing apparatus comprises: an inertial measurement unit sensor configured to detect acceleration data of the escalator; wherein at least one of the sensing apparatus, the local gateway device, and the analytic engine is configured to determine an operating mode of the escalator in response to at least the acceleration data; and an application for a computing device, the application being configured to display weather data simultaneously with the operating mode of the escalator on a display device of the computing device. an inertial measurement unit sensor configured to detect acceleration data of the escalator; wherein at least one of the sensing apparatus, the local gateway device, and the analytic engine is configured to determine an operating mode of the escalator in response to at least the acceleration data; and an application for a computing device, the application being configured to display weather data simultaneously with the operating mode of the escalator on a display device of the computing device.
A device for raising or lowering a nuclear fuel assembly in a pool of a nuclear installation, the device comprising: - a guidance system intended to be fastened to the pool, and - a basket defining a housing for receiving the nuclear fuel assembly and water surrounding the nuclear fuel assembly, the basket comprising an upper end defining a passage adapted for allowing loading of the nuclear fuel assembly into the housing from above, and a lateral jacket adapted for surrounding the nuclear fuel assembly around a direction intended to be substantially vertical, and - at least one sampling system, characterized in that: - the basket is mounted on the guidance system movable in translation according to the direction, - the lateral jacket is watertight, and - the sampling system is adapted to provide at least one water sample taken from the housing. - a guidance system intended to be fastened to the pool, and - a basket defining a housing for receiving the nuclear fuel assembly and water surrounding the nuclear fuel assembly, the basket comprising an upper end defining a passage adapted for allowing loading of the nuclear fuel assembly into the housing from above, and a lateral jacket adapted for surrounding the nuclear fuel assembly around a direction intended to be substantially vertical, and - at least one sampling system, - the basket is mounted on the guidance system movable in translation according to the direction, - the lateral jacket is watertight, and - the sampling system is adapted to provide at least one water sample taken from the housing.
Method for producing an active part (1, 201) of an RC voltage divider (100, 200), comprising the steps of - providing at least two capacitive modules (2, 3, 4, 202, 203) of the active part (1, 201) of the RC voltage divider (100, 200); - individually encapsulating and hermetically sealing each one of the at least two capacitive modules (2, 3, 4, 202, 203) with individual encapsulations (29, 39, 49); - stacking the at least two encapsulated and hermetically sealed capacitive modules (2, 3, 4, 202, 203) in order to produce the active part (1, 201) of the RC voltage divider (100, 200). - providing at least two capacitive modules (2, 3, 4, 202, 203) of the active part (1, 201) of the RC voltage divider (100, 200); - individually encapsulating and hermetically sealing each one of the at least two capacitive modules (2, 3, 4, 202, 203) with individual encapsulations (29, 39, 49); - stacking the at least two encapsulated and hermetically sealed capacitive modules (2, 3, 4, 202, 203) in order to produce the active part (1, 201) of the RC voltage divider (100, 200).
A method for detecting a Salmonella microorganism, comprising: contacting a predefined volume of a sample in a culture device with a selective growth medium that includes nutrients to facilitate the growth of the target microorganism and a plurality of selective agents that includes Cefsulodin, Nalidixic Acid, Streptomycin, Methicillin, and bile salts; a first differential indicator system comprising 2-deoxy-D-ribose and a pH indicator; a second differential indicator system comprising a chromogenic β-galactosidase enzyme substrate; and a gelling agent to form an inoculated culture device; incubating the inoculated culture device for a first period of time; observing the growth medium to detect an indication of a possible presence in the sample of the target microorganism; when there is an indication of the possible presence of the target microorganism, contacting a third differential indicator system with the hydrated growth medium; and observing the third differential indicator system for an indication of the presence of the target microorganism. contacting a predefined volume of a sample in a culture device with a selective growth medium that includes nutrients to facilitate the growth of the target microorganism and a plurality of selective agents that includes Cefsulodin, Nalidixic Acid, Streptomycin, Methicillin, and bile salts; a first differential indicator system comprising 2-deoxy-D-ribose and a pH indicator; a second differential indicator system comprising a chromogenic β-galactosidase enzyme substrate; and a gelling agent to form an inoculated culture device; incubating the inoculated culture device for a first period of time; observing the growth medium to detect an indication of a possible presence in the sample of the target microorganism; when there is an indication of the possible presence of the target microorganism, contacting a third differential indicator system with the hydrated growth medium; and observing the third differential indicator system for an indication of the presence of the target microorganism.