mhurhangee/patent-ind-claim-en huggingface dataset:
Damping device for a percussion device of a hydraulic rock drilling machine with a striking direction (R), including a damping piston for action in an axial direction against a tool to be driven by the percussion device, wherein the damping piston exhibits a first piston portion , which is received in a first damping chamber of the damping device, and a second piston portion , which is received in a second damping chamber of the damping device, wherein the damping piston is arranged such that in operation, in a normal striking position for said percussion device, the damping piston is set against a fixed stop of the damping device against movements in the striking direction, wherein the first damping chamber is pressurized with a hydraulic pressure, characterised in that the damping device is arranged such that a damping slot is established between the first and the second damping chamber in all axial positions of the damping pistons. the damping piston is arranged such that in operation, in a normal striking position for said percussion device, the damping piston is set against a fixed stop of the damping device against movements in the striking direction, wherein the first damping chamber is pressurized with a hydraulic pressure, characterised in that the damping device is arranged such that a damping slot is established between the first and the second damping chamber in all axial positions of the damping pistons.
An apparatus for administering an inhaled medication to a patient with an open mouth, wherein the apparatus comprises that the medication is administered from a pressurized metered dose inhaler (MDI) having a canister containing an inhalable medication; and an oxygen delivery mask covering the nose and mouth of the patient that provides medical oxygen at a flow rate up to 15 liters per minute, wherein the mask has an approximately 22 mm diameter opening on the dorsal surface of the mask; wherein the apparatus further comprises: an extender tube 3-10 cm long having a proximal end that fits into or over an output mouthpiece of the MDI, the MDI mouthpiece and the extender tube inserted into the 22 mm opening of the mask to a position such that the distal end of the extender tube is just inside the open mouth of the patient; and wherein the apparatus is configured such that an actuation of the MDI administers a dose of the inhalable medication to the patient while oxygen remains flowing without interruption at up to about 15 liters per minute flow rate. an extender tube 3-10 cm long having a proximal end that fits into or over an output mouthpiece of the MDI, the MDI mouthpiece and the extender tube inserted into the 22 mm opening of the mask to a position such that the distal end of the extender tube is just inside the open mouth of the patient; and wherein the apparatus is configured such that an actuation of the MDI administers a dose of the inhalable medication to the patient while oxygen remains flowing without interruption at up to about 15 liters per minute flow rate.
An apparatus comprising: decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including 1) one or more fields to identify a first destination operand, 2) one or more fields to identify a second destination operand, the second destination operand is to either store an output data structure having encrypted data after execution of the instruction, or a location to store an data structure having encrypted data after execution of the instruction, 3) one or more fields to identify a source operand, wherein the source operand is to either store an input data structure to be used in an encryption process or a location of an input data structure to be used in an encryption process, and 4) one more fields for an opcode, the opcode to indicate that execution circuitry is to at least encrypt secret information from the input data structure with a physical unclonable function, PUF, generated encryption key, bind the wrapped secret information to a target, update the input data structure, generate a message authentication code, MAC, over the updated data structure, store the MAC in the input data structure to generate a wrapped output data structure, store the wrapped output data structure having the encrypted secret information and an indication of the target according to the second destination operand's usage for the instruction; and execution circuitry to execute the decoded instruction according to the opcode. decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including 1) one or more fields to identify a first destination operand, 2) one or more fields to identify a second destination operand, the second destination operand is to either store an output data structure having encrypted data after execution of the instruction, or a location to store an data structure having encrypted data after execution of the instruction, 3) one or more fields to identify a source operand, wherein the source operand is to either store an input data structure to be used in an encryption process or a location of an input data structure to be used in an encryption process, and 4) one more fields for an opcode, the opcode to indicate that execution circuitry is to at least encrypt secret information from the input data structure with a physical unclonable function, PUF, generated encryption key, bind the wrapped secret information to a target, update the input data structure, generate a message authentication code, MAC, over the updated data structure, store the MAC in the input data structure to generate a wrapped output data structure, store the wrapped output data structure having the encrypted secret information and an indication of the target according to the second destination operand's usage for the instruction; and execution circuitry to execute the decoded instruction according to the opcode.
A slave device for a communication system, the slave device comprising: a first connector connectable to a master device ; a second connector connectable to another slave device; a switch configured to alternatively connect to the first connector or the second connector according to a connection way via which the slave device is connected to the master device and the other slave device, provided that the first connector is connected to the master device ; and a communicator connected to the first connector and the switch , configured to transmit and receive a first communication signal to and from the first connector , and configured to transmit and receive a second communication signal to and from the switch . a first connector connectable to a master device ; a second connector connectable to another slave device; a switch configured to alternatively connect to the first connector or the second connector according to a connection way via which the slave device is connected to the master device and the other slave device, provided that the first connector is connected to the master device ; and a communicator connected to the first connector and the switch , configured to transmit and receive a first communication signal to and from the first connector , and configured to transmit and receive a second communication signal to and from the switch .
A method of data allocation, performed by a wireless transmitting apparatus , wherein the wireless transmitting apparatus transmits through a plurality of sub-carriers based on an orthogonal frequency division multiplexing, named OFDM hereinafter, technology, the method comprising: obtaining a data stream; allocating the data stream to a first sub-carrier set, wherein the plurality of sub-carriers is divided into the first sub-carrier set and a second sub-carrier set, and the first sub-carrier set and the second sub-carrier set respectively have the sub-carrier index values with opposite signs to each other; and allocating the second sub-carrier set based on the data stream allocated to the first sub-carrier set, which comprises: performing a complex conjugate computation to the data stream allocated to the first sub-carrier set; and allocating the data stream after the complex conjugate computation to the second sub-carrier set such that the data stream allocated to the first sub-carrier set is not interfered by the data stream allocated to the second sub-carrier set; converting the allocated data stream into an OFDM signal; and transmitting the OFDM signal to a wireless receiving apparatus . obtaining a data stream; allocating the data stream to a first sub-carrier set, wherein the plurality of sub-carriers is divided into the first sub-carrier set and a second sub-carrier set, and the first sub-carrier set and the second sub-carrier set respectively have the sub-carrier index values with opposite signs to each other; and allocating the second sub-carrier set based on the data stream allocated to the first sub-carrier set, which comprises: performing a complex conjugate computation to the data stream allocated to the first sub-carrier set; and allocating the data stream after the complex conjugate computation to the second sub-carrier set such that the data stream allocated to the first sub-carrier set is not interfered by the data stream allocated to the second sub-carrier set; performing a complex conjugate computation to the data stream allocated to the first sub-carrier set; and allocating the data stream after the complex conjugate computation to the second sub-carrier set such that the data stream allocated to the first sub-carrier set is not interfered by the data stream allocated to the second sub-carrier set; converting the allocated data stream into an OFDM signal; and transmitting the OFDM signal to a wireless receiving apparatus .
A contacting or connection terminal for electrically connecting at least one conductor to at least one electrical contact body, wherein the contacting or connection terminal can be brought into electrical contact with a mounting plate, - having a housing , in which the contact body is arranged, - having at least one pusher , - wherein the electrical contact body comprises a conductor clamp connection for the at least one electrical conductor , - wherein the electrical contact body has at least one punched part , which forms the conductor clamp connection and has a spring element , - wherein an actuation of the pusher acts on the spring element and enables an opening of the conductor clamp connection, characterized in that the spring element has an S shape, wherein the spring element has a bearing area , which after a partial actuation of the pusher can be supported on the mounting plate, and a spring leg , against which the pusher abuts, that the spring leg during a further actuation of the pusher subsequent to the partial actuation is pressed in the direction of the actuating force, while the other parts of the spring element are already located in their end positions. - having a housing , in which the contact body is arranged, - having at least one pusher , - wherein the electrical contact body comprises a conductor clamp connection for the at least one electrical conductor , - wherein the electrical contact body has at least one punched part , which forms the conductor clamp connection and has a spring element , - wherein an actuation of the pusher acts on the spring element and enables an opening of the conductor clamp connection,
A control device comprising: a first acquiring unit configured to acquire sensor-side metadata, which is information relating to a sensor configured to output sensing data; a second acquiring unit configured to acquire application-side metadata, which is information relating to an application that uses the sensing data; a comparison unit configured to execute matching between the sensor-side metadata and the application-side metadata, and to extract a sensor configured to provide sensing data that meets a request of the application; and an instruction unit configured to transmit, to a sensor management device that is configured to manage the sensor , a data flow control command that includes information configured to specify the sensor extracted by the comparison unit , and the application; wherein the sensor-side metadata contains information that designates part of the metadata to be handled as dynamic data, the application-side metadata contains a condition that part of the metadata is required to be handled as dynamic data, and a dynamic handling condition, and the data flow control command includes the dynamic handling condition, and includes an instruction to instruct, if the sensing data is handled as dynamic data and is output by the sensor or the sensing data is handled as dynamic data and is output by another sensor attached to this sensor satisfies the dynamic handling condition, the corresponding sensor to transmit the sensing data to the application. a first acquiring unit configured to acquire sensor-side metadata, which is information relating to a sensor configured to output sensing data; a second acquiring unit configured to acquire application-side metadata, which is information relating to an application that uses the sensing data; a comparison unit configured to execute matching between the sensor-side metadata and the application-side metadata, and to extract a sensor configured to provide sensing data that meets a request of the application; and an instruction unit configured to transmit, to a sensor management device that is configured to manage the sensor , a data flow control command that includes information configured to specify the sensor extracted by the comparison unit , and the application; wherein the sensor-side metadata contains information that designates part of the metadata to be handled as dynamic data, the application-side metadata contains a condition that part of the metadata is required to be handled as dynamic data, and a dynamic handling condition, and the data flow control command includes the dynamic handling condition, and includes an instruction to instruct, if the sensing data is handled as dynamic data and is output by the sensor or the sensing data is handled as dynamic data and is output by another sensor attached to this sensor satisfies the dynamic handling condition, the corresponding sensor to transmit the sensing data to the application.
An ultrasonic surgical instrument , comprising: (a) an end effector including an ultrasonic blade ; (b) an acoustic waveguide in acoustic communication with the ultrasonic blade, wherein at least a proximal portion of the acoustic waveguide extends along a longitudinal axis; (c) an ultrasonic transducer assembly operatively coupled with the acoustic waveguide; and (d) a carrier configured to translate the end effector, the carrier comprising: (i) a carriage movably supporting the ultrasonic transducer assembly along the longitudinal axis, and (ii) a translation driver configured to translate the carriage and the ultrasonic transducer assembly along the longitudinal axis so that the ultrasonic transducer assembly moves from a proximal position along the longitudinal axis to a distal position along the longitudinal axis for inserting the ultrasonic blade into a patient; and (e) an attachment interface configured to operatively couple with a robotic arm of a robotic surgical system such that the ultrasonic surgical instrument is detachably coupled to the robotic arm. (a) an end effector including an ultrasonic blade ; (b) an acoustic waveguide in acoustic communication with the ultrasonic blade, wherein at least a proximal portion of the acoustic waveguide extends along a longitudinal axis; (c) an ultrasonic transducer assembly operatively coupled with the acoustic waveguide; and (d) a carrier configured to translate the end effector, the carrier comprising: (i) a carriage movably supporting the ultrasonic transducer assembly along the longitudinal axis, and (ii) a translation driver configured to translate the carriage and the ultrasonic transducer assembly along the longitudinal axis so that the ultrasonic transducer assembly moves from a proximal position along the longitudinal axis to a distal position along the longitudinal axis for inserting the ultrasonic blade into a patient; and (i) a carriage movably supporting the ultrasonic transducer assembly along the longitudinal axis, and (ii) a translation driver configured to translate the carriage and the ultrasonic transducer assembly along the longitudinal axis so that the ultrasonic transducer assembly moves from a proximal position along the longitudinal axis to a distal position along the longitudinal axis for inserting the ultrasonic blade into a patient; and (e) an attachment interface configured to operatively couple with a robotic arm of a robotic surgical system such that the ultrasonic surgical instrument is detachably coupled to the robotic arm.
An inspection device that performs quality inspection of a printed matter, the inspection device comprising: an image obtaining unit configured to obtain a document image; a first reader configured to read the printed matter obtained by forming a printed image on one surface of a transparent material based on the document image from a side of the other surface opposite to the one surface; an abnormality detection unit configured to detect an abnormality of the printed matter based on the document image and a read image by the first reader; a material information obtaining unit configured to obtain information regarding the transparent material; and a pixel value correction unit configured to correct a pixel value of the document image based on the information obtained by the material information obtaining unit, wherein the material information obtaining unit is configured to obtain information regarding a hue of the transparent material, and the pixel value correction unit is configured to correct a pixel value of the read image according to the hue of the transparent material. an image obtaining unit configured to obtain a document image; a first reader configured to read the printed matter obtained by forming a printed image on one surface of a transparent material based on the document image from a side of the other surface opposite to the one surface; an abnormality detection unit configured to detect an abnormality of the printed matter based on the document image and a read image by the first reader; a material information obtaining unit configured to obtain information regarding the transparent material; and a pixel value correction unit configured to correct a pixel value of the document image based on the information obtained by the material information obtaining unit, wherein the material information obtaining unit is configured to obtain information regarding a hue of the transparent material, and the pixel value correction unit is configured to correct a pixel value of the read image according to the hue of the transparent material.
An electronic device comprising: a secure element ; first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to activate the second communication circuitry based on a signal received via the first communication circuitry , wherein the second communication circuitry is further configured to: perform a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, while the electronic device and the external electronic device are within the defined distance from each other, receive, from the external electronic device , a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID, and route the USSID to the secure element based on the MAC payload. a secure element ; first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to activate the second communication circuitry based on a signal received via the first communication circuitry , wherein the second communication circuitry is further configured to: perform a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, while the electronic device and the external electronic device are within the defined distance from each other, receive, from the external electronic device , a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID, and route the USSID to the secure element based on the MAC payload. perform a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, while the electronic device and the external electronic device are within the defined distance from each other, receive, from the external electronic device , a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID, and route the USSID to the secure element based on the MAC payload.
A spectrum filling method for perceptual spectral decoding of an audio signal, the method comprising: obtaining an initial set of decoded spectral coefficients, said initial set of decoded spectral coefficients comprising series of coefficients having a zero magnitude; spectrum filling of said initial set of decoded spectral coefficients into a set of reconstructed spectral coefficients; said spectrum filling comprising noise filling of spectral holes by setting spectral coefficients in said initial set of spectral coefficients having a zero magnitude equal to elements derived from said decoded spectral coefficients; and outputting said set of reconstructed spectral coefficients; characterised in that said noise filling comprises creating a spectral codebook by concatenating the perceptually relevant spectral coefficients of said decoded spectral coefficients, and selecting elements from said spectral codebook in index order starting from the low frequency end, wherein indices i are assigned to the spectral coefficients and indices j are assigned to the elements of the spectral codebook, wherein the spectral holes are filled by increasing the index j as much as the index i, and by a cyclic use of the spectral codebook if there are more spectral holes than elements in the spectral codebook. obtaining an initial set of decoded spectral coefficients, said initial set of decoded spectral coefficients comprising series of coefficients having a zero magnitude; spectrum filling of said initial set of decoded spectral coefficients into a set of reconstructed spectral coefficients; said spectrum filling comprising noise filling of spectral holes by setting spectral coefficients in said initial set of spectral coefficients having a zero magnitude equal to elements derived from said decoded spectral coefficients; and outputting said set of reconstructed spectral coefficients; characterised in that said noise filling comprises creating a spectral codebook by concatenating the perceptually relevant spectral coefficients of said decoded spectral coefficients, and selecting elements from said spectral codebook in index order starting from the low frequency end, wherein indices i are assigned to the spectral coefficients and indices j are assigned to the elements of the spectral codebook, wherein the spectral holes are filled by increasing the index j as much as the index i, and by a cyclic use of the spectral codebook if there are more spectral holes than elements in the spectral codebook.