mhurhangee/ep-ind-claims huggingface dataset:
An image capture control apparatus (100, 332, 342) for single-handed camera control of a camera (302, 304) during capture of video content, the image capture control apparatus (100, 332, 342) comprising: a stick extending from a base and configured to operate bi-directionally to adjust at least one setting of the camera (302, 304); a first continuous control element disposed around the base and configured to control a first parameter of the camera (302, 304); a second continuous control element disposed on the stick and configured to control a second parameter of the camera (302, 304); a third continuous control element disposed at a distal end of the stick with the second continuous control element disposed between the first and third continuous control elements, and wherein the third continuous control element is configured to control a third parameter of the camera (302, 304), wherein each of the first continuous control element, the second continuous control element and the third continuous control element are configured to be physically manipulated simultaneously by a hand of an operator of the single-handed camera (302, 304). a stick extending from a base and configured to operate bi-directionally to adjust at least one setting of the camera (302, 304); a first continuous control element disposed around the base and configured to control a first parameter of the camera (302, 304); a second continuous control element disposed on the stick and configured to control a second parameter of the camera (302, 304); a third continuous control element disposed at a distal end of the stick with the second continuous control element disposed between the first and third continuous control elements, and wherein the third continuous control element is configured to control a third parameter of the camera (302, 304), wherein each of the first continuous control element, the second continuous control element and the third continuous control element are configured to be physically manipulated simultaneously by a hand of an operator of the single-handed camera (302, 304).
A headgear for holding a respiratory mask on a face of a patient during treatment for sleep disordered breathing, comprising: a first strap configured to engage a back of a patient's head and extend on either side of the patient's parietal bone behind the patient's ears and assume, in use, a substantially circular or oval shape; a pair of top straps configured to extend above the patient's ear and a pair of bottom straps configured to extend below the patient's ear, each attached to the first strap at a join, a rigidizer encapsulated in the first strap, wherein the rigidizer is able to bend or deform along its length but resists or prevents stretching of the headgear in a lengthwise direction of the rigidizer, wherein the first strap includes a first fabric outer layer constructed and arranged to be located on a patient-contacting side and a second fabric outer layer constructed and arranged to be located on a non-patient-contacting side thermoformed and attached to the rigidizer; wherein the first fabric outer layer and the second fabric outer layer are joined at a joint arranged to be positioned away from the patient's face in use; and wherein the rigidizer is less extensible than remaining portions of the headgear. a first strap configured to engage a back of a patient's head and extend on either side of the patient's parietal bone behind the patient's ears and assume, in use, a substantially circular or oval shape; a pair of top straps configured to extend above the patient's ear and a pair of bottom straps configured to extend below the patient's ear, each attached to the first strap at a join, a rigidizer encapsulated in the first strap, wherein the rigidizer is able to bend or deform along its length but resists or prevents stretching of the headgear in a lengthwise direction of the rigidizer, wherein the first strap includes a first fabric outer layer constructed and arranged to be located on a patient-contacting side and a second fabric outer layer constructed and arranged to be located on a non-patient-contacting side thermoformed and attached to the rigidizer; wherein the first fabric outer layer and the second fabric outer layer are joined at a joint arranged to be positioned away from the patient's face in use; and wherein the rigidizer is less extensible than remaining portions of the headgear.
Support device for attachment to a window of a motor vehicle, comprising a base plate attachable to the window, on which base plate a support arrangement for holding a housing (18, 84) of at least one camera is formed, characterised in that the support arrangement comprises at least one holding element (24, 26, 82) for directly applying a pressure acting in the direction towards the base plate to a rod-shaped component (32, 34, 36) located on the housing (18, 84) and projecting beyond a wall (38, 40, 42) of the housing (18, 84), wherein a spring element (72, 80) located in the base body (28, 30) of the at least one holding element (24, 26, 82) is designed with an angled leg, which is in contact with the base body (28, 30) of the holding element (24, 26, 82) and which has a securing element, which ensures that the spring (72, 80) remains in the insertion region (60, 66) of the holding element (24, 26, 82).
A method for setting a network by a first router in a home network system comprising one or more groups (M1, M2, M3), one or more routers (110, 120, 130), and one or more devices, wherein a group is an Internet Protocol, IP, subnet, wherein a first group is formed by the first router and includes a first device and a second device, a second group is formed by a second router and includes a third device, fourth device and a fifth device, and a third group is formed by a third router and includes a sixth device and a seventh device, wherein a top router, forming a single group, which is one of the one or more routers (110, 120, 130), is directly connected to a modem and assigns IP addresses, the method comprising the steps of: determining whether the first router is the top router by determining whether a Wide Area Network, WAN, Internet Protocol, IP, address of the first router is identical to a Simple Traversal of User Datagram Protocol, UDP, through Network Address Translators, NATs, STUN, result value; if the first router is the top router, generating a multicast packet indicating that the first router is the top router for forming the single group including the one or more groups (M1, M2, M3); and transmitting the multicast packet to the second and third routers being the other routers (120, 130); and forming the single group and assigning the IP addresses to the other routers (120, 130), such that the other routers (120, 130) and devices (123-125, 136-137) included in groups being formed by the other routers (120, 130) have IP addresses assigned by the first router, wherein assigning the IP addresses to the other routers (120, 130) comprises changing a WAN interface to a Local Area Network, LAN, interface in each of the other routers (120, 130). determining whether the first router is the top router by determining whether a Wide Area Network, WAN, Internet Protocol, IP, address of the first router is identical to a Simple Traversal of User Datagram Protocol, UDP, through Network Address Translators, NATs, STUN, result value; if the first router is the top router, generating a multicast packet indicating that the first router is the top router for forming the single group including the one or more groups (M1, M2, M3); and transmitting the multicast packet to the second and third routers being the other routers (120, 130); and forming the single group and assigning the IP addresses to the other routers (120, 130), such that the other routers (120, 130) and devices (123-125, 136-137) included in groups being formed by the other routers (120, 130) have IP addresses assigned by the first router, wherein assigning the IP addresses to the other routers (120, 130) comprises changing a WAN interface to a Local Area Network, LAN, interface in each of the other routers (120, 130).
A surgical hub, comprising: a processor; and a memory coupled to the processor, the memory storing instructions executable by the processor to: receive first image data from an image sensor, wherein the first image data represents a first field of view; receive second image data from the image sensor, wherein the second image data represents a second field of view receive status information associated with a surgical device, wherein the status information is indicative of one of more of: force-to-fire, force-to-close, firing progress, tissue gap, power level, impedance, tissue compression stability, number of staple rows, distance traversed by a knife along a length of a staple cartridge, clamp stabilization, and clamp time; and display, on a display coupled to the processor, a first image rendered from the first image data corresponding to the first field of view, a second image rendered from the second image data corresponding to the second field of view, and the status information associated with the surgical device. receive first image data from an image sensor, wherein the first image data represents a first field of view; receive second image data from the image sensor, wherein the second image data represents a second field of view receive status information associated with a surgical device, wherein the status information is indicative of one of more of: force-to-fire, force-to-close, firing progress, tissue gap, power level, impedance, tissue compression stability, number of staple rows, distance traversed by a knife along a length of a staple cartridge, clamp stabilization, and clamp time; and display, on a display coupled to the processor, a first image rendered from the first image data corresponding to the first field of view, a second image rendered from the second image data corresponding to the second field of view, and the status information associated with the surgical device.
A detergent pouch, comprising a compartment formed by an enzymatic water-soluble film, and a detergent composition containing a surfactant and/or a detergent builder; wherein the enzyme is present in the water-soluble film as enzyme crystals; and wherein the size of the enzyme crystals is from 0.5 μm to 100 μm.
A nucleic acid comprising a nucleotide sequence encoding a coding sequence for an RdCVF protein operatively linked to a second nucleotide sequence encoding an N-terminal signal sequence; wherein the RdCVF coding sequence comprises a recoded nucleotide sequence that is less than 90% identical to a corresponding native nucleotide sequence and in which at least one native codon is changed to a different codon that encodes for the same amino acid as the native codon; and the signal sequence is an Igk signal sequence.
A leading edge structure for a flow control system of an aircraft, comprising a double-walled leading edge panel extending in a span direction and across the span direction extending between a leading edge portion and a downstream portion, wherein the leading edge panel comprises an inner wall element and an outer wall element, wherein between the inner and outer wall elements (45, 47) the leading edge panel comprises a plurality of elongate stiffeners spaced apart from one another, so that between each pair of adjacent stiffeners a hollow chamber is formed between the inner and outer wall elements (45, 47), wherein the outer wall element comprises a plurality of micro pores forming a fluid connection between the hollow chambers and an ambient flow, wherein the inner wall element comprises passages configured for forming a fluid connection between the hollow chambers and a vacuum system, and wherein the stiffeners form hot air ducts for passing hot air along the longitudinal extension of the stiffeners, wherein the hot air ducts are configured for connection to a hot air system, characterized in that the stiffeners include a plurality of hot air openings forming a fluid connection between the hot air ducts and the hollow chambers for passing hot air from the hot air system through the hot air ducts and the hot air openings to the hollow chambers. a double-walled leading edge panel extending in a span direction and across the span direction extending between a leading edge portion and a downstream portion, wherein the leading edge panel comprises an inner wall element and an outer wall element, wherein between the inner and outer wall elements (45, 47) the leading edge panel comprises a plurality of elongate stiffeners spaced apart from one another, so that between each pair of adjacent stiffeners a hollow chamber is formed between the inner and outer wall elements (45, 47), wherein the outer wall element comprises a plurality of micro pores forming a fluid connection between the hollow chambers and an ambient flow, wherein the inner wall element comprises passages configured for forming a fluid connection between the hollow chambers and a vacuum system, and wherein the stiffeners form hot air ducts for passing hot air along the longitudinal extension of the stiffeners, wherein the hot air ducts are configured for connection to a hot air system, characterized in that the stiffeners include a plurality of hot air openings forming a fluid connection between the hot air ducts and the hollow chambers for passing hot air from the hot air system through the hot air ducts and the hot air openings to the hollow chambers.
A method for processing an electroencephalography signal, through a processor, comprising: obtaining the EEG signal (x(t)); performing a spike detection on the EEG signal (x(t)) to obtain a spike distribution waveform (s(x(t))); performing an instantaneous frequency oscillation energy analysis on the EEG signal (x(t)) to obtain a plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3 (x(t))))); performing a complexity analysis on the EEG signal (x(t)) to obtain a complexity change waveform (S(En(x(t)))); and determining a time interval where a specified neural waveform is located based on the spike distribution waveform (s(x(t))), the plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))), and the complexity change waveform (S(En(x(t)))), wherein a waveform in the time interval of the spike distribution waveform (s(x(t))) conforms to a spike distribution rule of the specified neural waveform, a waveform in the time interval of each of the energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))) conforms to an energy change rule of the specified neural waveform, and a waveform in the time interval of the complexity change waveform (S(En(x(t)))) conforms to a complexity change rule of the specified neural waveform. obtaining the EEG signal (x(t)); performing a spike detection on the EEG signal (x(t)) to obtain a spike distribution waveform (s(x(t))); performing an instantaneous frequency oscillation energy analysis on the EEG signal (x(t)) to obtain a plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3 (x(t))))); performing a complexity analysis on the EEG signal (x(t)) to obtain a complexity change waveform (S(En(x(t)))); and determining a time interval where a specified neural waveform is located based on the spike distribution waveform (s(x(t))), the plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))), and the complexity change waveform (S(En(x(t)))), wherein a waveform in the time interval of the spike distribution waveform (s(x(t))) conforms to a spike distribution rule of the specified neural waveform, a waveform in the time interval of each of the energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))) conforms to an energy change rule of the specified neural waveform, and a waveform in the time interval of the complexity change waveform (S(En(x(t)))) conforms to a complexity change rule of the specified neural waveform.
A mobile terminal comprising: a controller configured to: detect an incoming call event and, if the mobile terminal is set in a ring mode, process the incoming call event in the ring mode, including outputting an audio signal corresponding to the incoming call event, characterised in that the mobile terminal further comprises a placement attitude detector and the controller is configured to: control, in response to detection of said incoming call event, the placement attitude detector to identify a placement attitude of the mobile terminal; and process the incoming call event in a silent mode, including silencing the audio signal corresponding to the incoming call event, if the placement attitude is changed, during outputting of the audio signal, to a first placement attitude, wherein the first placement attitude denotes a placement attitude of the mobile terminal that remains constant for a preset time period during an initial setting operation. detect an incoming call event and, if the mobile terminal is set in a ring mode, process the incoming call event in the ring mode, including outputting an audio signal corresponding to the incoming call event, characterised in that the mobile terminal further comprises a placement attitude detector and the controller is configured to: control, in response to detection of said incoming call event, the placement attitude detector to identify a placement attitude of the mobile terminal; and process the incoming call event in a silent mode, including silencing the audio signal corresponding to the incoming call event, if the placement attitude is changed, during outputting of the audio signal, to a first placement attitude, wherein the first placement attitude denotes a placement attitude of the mobile terminal that remains constant for a preset time period during an initial setting operation. control, in response to detection of said incoming call event, the placement attitude detector to identify a placement attitude of the mobile terminal; and process the incoming call event in a silent mode, including silencing the audio signal corresponding to the incoming call event, if the placement attitude is changed, during outputting of the audio signal, to a first placement attitude, wherein the first placement attitude denotes a placement attitude of the mobile terminal that remains constant for a preset time period during an initial setting operation.
A display device comprising a pointer of orientation that is variable by pivoting about an axis and carrying a lighting member connected to a connector by a flexible ribbon folded in half to form a loop having one branch connected to the pointer and one branch connected to the connector, wherein the flexible ribbon is secured along the pointer, and presents a bend portion folded down over one end of the pointer so that the bend portion and the branch connected to the pointer both extend in a common plane, the loop being a U-shaped loop.
A method for device-to-device, D2D, operation in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving, from a base station, information for whether a second message is allowed to be transmitted at a greater number of transmission times than a predetermined number of transmission times, wherein transmission of the second message is configured to repeat the predetermined number of transmission times, and wherein a first message has a high priority and the second message has a low priority; and performing the transmission of the second message based on transmission power lower than transmission power of the first message, when a transmission time point of the first message overlaps a transmission time point of the second message, wherein, when the transmission time point of the first message overlaps the transmission time point of the second message, the second message is transmitted at the greater number of transmission times than the predetermined number of transmission times. receiving, from a base station, information for whether a second message is allowed to be transmitted at a greater number of transmission times than a predetermined number of transmission times, wherein transmission of the second message is configured to repeat the predetermined number of transmission times, and wherein a first message has a high priority and the second message has a low priority; and performing the transmission of the second message based on transmission power lower than transmission power of the first message, when a transmission time point of the first message overlaps a transmission time point of the second message, wherein, when the transmission time point of the first message overlaps the transmission time point of the second message, the second message is transmitted at the greater number of transmission times than the predetermined number of transmission times.
Device for recording and monitoring the health and physical development of live fish in an aquaculture cage, said device comprising: - a chamber arranged below a water surface, in which the live fish are kept; and - a fish health scanner device for recording and monitoring the health and physical development of fish, said device being characterized in that it further comprises an inner tube which leads from the chamber and up to the water surface and gives the fish in the chamber access to the water surface, and wherein the fish health scanner device for recording and monitoring the health and physical development of fish is placed in the inner tube so that the fish is guided through a recording area located in the inner tube where the fish's health and physical development are monitored. - a chamber arranged below a water surface, in which the live fish are kept; and - a fish health scanner device for recording and monitoring the health and physical development of fish,
Method for controlling a multipump system designed to pump a fluid, said system including n pumping cells (Ci) connected in parallel, with n greater than or equal to 2, and each comprising an inlet, an outlet and a pump (Pi) connected between the inlet and the outlet, at least one inlet junction point connected to each inlet of the pumping cells and at least one outlet junction point connected to each outlet of the pumping cells, said system being controlled in accordance with a reference pressure difference (dPsp) between said inlet junction point and said outlet junction point, said method being characterized in that it consists in: - Determining by estimation an estimated pressure difference (dPpumpi) generated by each pumping cell (Ci) between its inlet and its outlet taking account of a correction value (HEGi) representing the head losses in the pumping cell, - Determining by estimation a pressure difference (dPSys) of the multipump system from the pressure differences estimated for each pumping cell, - Comparing said multipump system estimated pressure difference (dPSys) with said reference pressure difference (dPsp) in order to control a reference speed (Wref) to be injected into a control loop of the multipump system. - Determining by estimation an estimated pressure difference (dPpumpi) generated by each pumping cell (Ci) between its inlet and its outlet taking account of a correction value (HEGi) representing the head losses in the pumping cell, - Determining by estimation a pressure difference (dPSys) of the multipump system from the pressure differences estimated for each pumping cell, - Comparing said multipump system estimated pressure difference (dPSys) with said reference pressure difference (dPsp) in order to control a reference speed (Wref) to be injected into a control loop of the multipump system.