mhurhangee/patent-ind-claim-en huggingface dataset:
A touch screen panel including a plurality of touch sensors (TS1, ..., TS9), wherein each of the touch sensors (TS1, ..., TS9) includes: a first touch electrode unit (Tx) extending in a first direction; and a second touch electrode unit (Rx) extending in a second direction, the first touch electrode unit (Tx) includes a plurality of first mesh pattern electrodes (Tx M) which are disposed being spaced apart from each other, wherein a space between the first mesh pattern electrodes (Tx_M) is generated, in a sensing area (TA5) where the first touch electrode unit (Tx) and the second touch electrode unit (Rx) intersect each other, and the second touch electrode unit (Rx) includes a plurality of second mesh pattern electrodes (Rx_M) which are disposed between the plurality of first mesh pattern electrodes (Tx_M) being spaced apart from each other in the sensing area (TA5), wherein the second mesh pattern electrodes (Rx_M) and the first mesh patterns electrodes (Tx_M) extend in the first direction and are alternately disposed on different layers in the second direction, wherein the first touch electrode unit (Tx) further includes a plurality of first internal connection lines (Tx_L1) connecting the plurality of first mesh pattern electrodes (Tx_M), and the second touch electrode unit (Rx) further includes a plurality of second internal connection lines (Rx_L1) connecting the plurality of second mesh pattern electrodes (Rx_M). a first touch electrode unit (Tx) extending in a first direction; and a second touch electrode unit (Rx) extending in a second direction, the first touch electrode unit (Tx) includes a plurality of first mesh pattern electrodes (Tx M) which are disposed being spaced apart from each other, wherein a space between the first mesh pattern electrodes (Tx_M) is generated, in a sensing area (TA5) where the first touch electrode unit (Tx) and the second touch electrode unit (Rx) intersect each other, and the second touch electrode unit (Rx) includes a plurality of second mesh pattern electrodes (Rx_M) which are disposed between the plurality of first mesh pattern electrodes (Tx_M) being spaced apart from each other in the sensing area (TA5), wherein the second mesh pattern electrodes (Rx_M) and the first mesh patterns electrodes (Tx_M) extend in the first direction and are alternately disposed on different layers in the second direction, wherein the first touch electrode unit (Tx) further includes a plurality of first internal connection lines (Tx_L1) connecting the plurality of first mesh pattern electrodes (Tx_M), and the second touch electrode unit (Rx) further includes a plurality of second internal connection lines (Rx_L1) connecting the plurality of second mesh pattern electrodes (Rx_M).
A distance measuring method, in particular according to the time-of-flight measuring method, comprising at least • emitting at least one measurement signal (MS), in particular a light signal, to a target object , wherein at least one start signal (S) is generated; • receiving the measurement signal (MS) backscattered from the target object as a target signal (Z); • first sampling of the received target signal (Z) and determining the relative position of the start signal (S) and the target signal (Z); • deriving a distance to the target object from the relative position of the start signal (S) and the target signal (Z); characterized by at least a second sampling of the received target signal (Z), wherein the first and second sampling have different sampling rates with a sampling pattern assigned to the respective sampling rate. • emitting at least one measurement signal (MS), in particular a light signal, to a target object , wherein at least one start signal (S) is generated; • receiving the measurement signal (MS) backscattered from the target object as a target signal (Z); • first sampling of the received target signal (Z) and determining the relative position of the start signal (S) and the target signal (Z); • deriving a distance to the target object from the relative position of the start signal (S) and the target signal (Z);
A host cell comprising: i) a nucleic acid that encodes a glycosyltransferase derived from an rfb cluster of Pseudomonas ; ii) a nucleic acid that encodes a wzy polymerase, wherein said nucleic acid encodes a protein having about or at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, or 99% identity to SEQ ID NO:3, or wherein said nucleic acid encodes SEQ ID NO:3; iii) a nucleic acid that encodes an oligosaccharyl transferase; and iv) a nucleic acid that encodes a carrier protein comprising an N-glycosylation consensus sequence D/E - X - N - X- S/T wherein X is any amino acid except proline. i) a nucleic acid that encodes a glycosyltransferase derived from an rfb cluster of Pseudomonas ; ii) a nucleic acid that encodes a wzy polymerase, wherein said nucleic acid encodes a protein having about or at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, or 99% identity to SEQ ID NO:3, or wherein said nucleic acid encodes SEQ ID NO:3; iii) a nucleic acid that encodes an oligosaccharyl transferase; and iv) a nucleic acid that encodes a carrier protein comprising an N-glycosylation consensus sequence D/E - X - N - X- S/T wherein X is any amino acid except proline.
Locking device, with a housing and a cover closing the housing, wherein a latch is arranged in the housing , which latch can be moved to and fro in the housing by means of at least one motor and at least one gear mechanism between an open position and a closed position, in which the latch projects out of the housing from a latch opening on the front side of said housing, wherein the latch has a lower bolt and an upper bolt which interact with a respective bridge plate in such a manner that the bridge plates are held in their centre rotatably in relation to the latch , wherein the ends of the bridge plates are provided with openings in which pins engage, wherein at least two of said pins are arranged on a spindle nut which is movable by means of the at least one motor and the at least one gear mechanism on a spindle which is mounted rotatably between the front side and the rear side of the housing , characterized in that the spindle nuts have pins which adjoin the two pins interacting with the openings of the bridge plates and which are guided in grooves of the housing or of the cover . a housing and a cover closing the housing, wherein a latch is arranged in the housing , which latch can be moved to and fro in the housing by means of at least one motor and at least one gear mechanism between an open position and a closed position, in which the latch projects out of the housing from a latch opening on the front side of said housing, wherein the latch has a lower bolt and an upper bolt which interact with a respective bridge plate in such a manner that the bridge plates are held in their centre rotatably in relation to the latch , wherein the ends of the bridge plates are provided with openings in which pins engage, wherein at least two of said pins are arranged on a spindle nut which is movable by means of the at least one motor and the at least one gear mechanism on a spindle which is mounted rotatably between the front side and the rear side of the housing , characterized in that the spindle nuts have pins which adjoin the two pins interacting with the openings of the bridge plates and which are guided in grooves of the housing or of the cover .
In a gas turbine engine of the type having a high-pressure (HP) spool, a low-pressure (LP) spool, a first electric machine drivingly connected to the HP spool and a second electric machine drivingly connected to the LP spool, a method of increasing compression efficiency at a given thrust during cruise conditions of the engine, comprising: determining that an electrical power demand, P D , is less than a maximum power rating, P Hmax , of the first electric machine ; operating the first electric machine as a generator at the maximum power rating P Hmax ; and transferring mechanical power from the HP spool to the LP spool by operating the second electric machine as a motor and transferring excess electrical power, P Hmax - P D , from the first electric machine to the second electric machine ,to reduce a corrected speed of a HP compressor of the HP spool and raise a working line of a LP compressor of the LP spool. determining that an electrical power demand, P D , is less than a maximum power rating, P Hmax , of the first electric machine ; operating the first electric machine as a generator at the maximum power rating P Hmax ; and transferring mechanical power from the HP spool to the LP spool by operating the second electric machine as a motor and transferring excess electrical power, P Hmax - P D , from the first electric machine to the second electric machine ,to reduce a corrected speed of a HP compressor of the HP spool and raise a working line of a LP compressor of the LP spool.
A method for determining whether an animal is infected with a Bovine herpes virus type 1 (BoHV-1), vaccinated with a recombinant BoHV-1 triple mutant virus (BoHV-1 tmv), or uninfected with a Bovine herpesvirus type 1 (BoHV-1) comprising: (a) contacting a test sample from the animal with at least one polypeptide or peptide to form an assay mixture, where the at least one polypeptide consists of a sequence of any of SEQ ID NO:1 or 4 or wherein the peptide consists of a sequence of any of SEQ ID NO: 20, 21, 44, or 45; and (b) detecting or measuring whether a complex between the at least one polypeptide or peptide and antibodies is present in the assay mixture. (a) contacting a test sample from the animal with at least one polypeptide or peptide to form an assay mixture, where the at least one polypeptide consists of a sequence of any of SEQ ID NO:1 or 4 or wherein the peptide consists of a sequence of any of SEQ ID NO: 20, 21, 44, or 45; and (b) detecting or measuring whether a complex between the at least one polypeptide or peptide and antibodies is present in the assay mixture.
An oscillating heat pipe device , comprising: a monolithic body formed to be at least partially flexible; one or more channels within the body and defined by the body; an evaporator portion within the body and in fluid communication with the one or more channels; and a condenser portion within the body spaced from the evaporator portion and in fluid communication with the one or more channels, wherein the body is configured to flex at least between the evaporator portion and the condenser portion; characterised in that the material of the body is thermally insulative, wherein the heat transfer coefficient of the device is higher than the thermally insulative material alone; and in that a dimension of the one or more channels and a thickness of the body are selected to act as thermal conductor. a monolithic body formed to be at least partially flexible; one or more channels within the body and defined by the body; an evaporator portion within the body and in fluid communication with the one or more channels; and a condenser portion within the body spaced from the evaporator portion and in fluid communication with the one or more channels, wherein the body is configured to flex at least between the evaporator portion and the condenser portion; characterised in that the material of the body is thermally insulative, wherein the heat transfer coefficient of the device is higher than the thermally insulative material alone; and in that a dimension of the one or more channels and a thickness of the body are selected to act as thermal conductor.
An antenna device , comprising: a first shorting element and a second shorting element , electrically connected to a ground plane ; a first radiation element , having a feeding point (FP1) and disposed between the first shorting element and the second shorting element ; a second radiation element , electrically connected between the first radiation element and the first shorting element ; and a third radiation element , electrically connected between the first radiation element and the second shorting element , wherein the first to third radiation elements (110-130), the first shorting element and the second shorting element form two antenna elements disposed in parallel and the antenna device is configured to operate in a first frequency band and a second frequency band, wherein the first to third radiation elements (110-130) are respectively a rectangular metal sheet, and a length of the first radiation element is 1/2 wavelength of the first frequency band, and lengths (D12) of the second radiation element and the third radiation element are respectively 1/4 wavelength of the second frequency band. a first shorting element and a second shorting element , electrically connected to a ground plane ; a first radiation element , having a feeding point (FP1) and disposed between the first shorting element and the second shorting element ; a second radiation element , electrically connected between the first radiation element and the first shorting element ; and a third radiation element , electrically connected between the first radiation element and the second shorting element , wherein the first to third radiation elements (110-130), the first shorting element and the second shorting element form two antenna elements disposed in parallel and the antenna device is configured to operate in a first frequency band and a second frequency band, wherein the first to third radiation elements (110-130) are respectively a rectangular metal sheet, and a length of the first radiation element is 1/2 wavelength of the first frequency band, and lengths (D12) of the second radiation element and the third radiation element are respectively 1/4 wavelength of the second frequency band.
A relay state determination device configured to determine whether or not a relay of a type configured to open and close contacts on a secondary side by turning on and off energization of a coil on a primary side has deteriorated, the relay state determination device characterized by comprising: a voltage value acquisition unit configured to directly acquire a voltage value between one pair of contacts mutually opened and closed in the relay; a contact bounce time acquisition unit configured to obtain a contact bounce time indicated by the one pair of contacts based on a temporal change in the voltage value after an ON instruction to the relay; and a state determination unit configured to compare the contact bounce time with a time threshold value set in advance to determine whether or not the relay has deteriorated, whereby the contact bounce time acquisition unit is configured to detect a voltage region in which the voltage value is continuously zero V for a predetermined time after the ON instruction to the relay, in the voltage waveform, and the contact bounce time acquisition unit is configured to determine time from after the ON-instruction to the relay to a beginning time point of the detected voltage region as the contact bounce time. a voltage value acquisition unit configured to directly acquire a voltage value between one pair of contacts mutually opened and closed in the relay; a contact bounce time acquisition unit configured to obtain a contact bounce time indicated by the one pair of contacts based on a temporal change in the voltage value after an ON instruction to the relay; and a state determination unit configured to compare the contact bounce time with a time threshold value set in advance to determine whether or not the relay has deteriorated, whereby the contact bounce time acquisition unit is configured to detect a voltage region in which the voltage value is continuously zero V for a predetermined time after the ON instruction to the relay, in the voltage waveform, and the contact bounce time acquisition unit is configured to determine time from after the ON-instruction to the relay to a beginning time point of the detected voltage region as the contact bounce time.
A method for detecting a gesture performed by a user using a wearable device comprising at least one multi-axis inertial sensor and at least one touch sensor, the wearable device worn on a finger of the user, the method comprising: determining a first orientation of the wearable device using the at least one multi-axis inertial sensor ; determining a touch location of a plurality of touch locations divided along a surface of the electronic device based on a capacitance due to an adjacent finger with respect to at least one finger on which the wearable device is worn using the at least one touch sensor; determining an absolute orientation, being the orientation of the wearable device and of the at least one finger on which the wearable device is worn, by combining the determined touch location, the first orientation of the at least one multi-axis inertial sensor, and a relative orientation between the determined touch location and the at least one multi-axis inertial sensor; and executing at least one function corresponding to at least one user gesture based on the determined absolute orientation of the wearable device. determining a first orientation of the wearable device using the at least one multi-axis inertial sensor ; determining a touch location of a plurality of touch locations divided along a surface of the electronic device based on a capacitance due to an adjacent finger with respect to at least one finger on which the wearable device is worn using the at least one touch sensor; determining an absolute orientation, being the orientation of the wearable device and of the at least one finger on which the wearable device is worn, by combining the determined touch location, the first orientation of the at least one multi-axis inertial sensor, and a relative orientation between the determined touch location and the at least one multi-axis inertial sensor; and executing at least one function corresponding to at least one user gesture based on the determined absolute orientation of the wearable device.
A method comprising: establishing a Bluetooth connection between a camera and a user device; transmitting a camera PIN from the camera to the user device via the Bluetooth connection; receiving a device public key and a device nonce from the user device at the camera; generating an encryption key at the camera using a camera private key, the device public key, a camera nonce, the device nonce, and a key derivation function; transmitting a camera public certificate, a camera public key, and the camera nonce from the camera to the user device for the user device to use the camera public key, a device private key, the camera nonce, the device nonce, and the key derivation function to generate the encryption key; capturing an image of a QR code displayed on a screen of the user device, wherein the QR code includes the camera PIN and a device PIN, and wherein the camera PIN and the device PIN are encrypted in the QR code using the encryption key; decrypting the camera PIN and the device PIN from the QR code using the encryption key; and confirming that the QR code includes the camera PIN and, responsive thereto, transmitting a message including the device PIN from the camera to the user device via the Bluetooth connection. establishing a Bluetooth connection between a camera and a user device; transmitting a camera PIN from the camera to the user device via the Bluetooth connection; receiving a device public key and a device nonce from the user device at the camera; generating an encryption key at the camera using a camera private key, the device public key, a camera nonce, the device nonce, and a key derivation function; transmitting a camera public certificate, a camera public key, and the camera nonce from the camera to the user device for the user device to use the camera public key, a device private key, the camera nonce, the device nonce, and the key derivation function to generate the encryption key; capturing an image of a QR code displayed on a screen of the user device, wherein the QR code includes the camera PIN and a device PIN, and wherein the camera PIN and the device PIN are encrypted in the QR code using the encryption key; decrypting the camera PIN and the device PIN from the QR code using the encryption key; and confirming that the QR code includes the camera PIN and, responsive thereto, transmitting a message including the device PIN from the camera to the user device via the Bluetooth connection.
An internal combustion engine having at least one power take-off console , comprising: a shaft designed as a hollow shaft and having gearing on the inside, and at least one internally-geared sleeve having a crowned gearing on an outside surface, the sleeve being connected to the shaft by way of the crowned gearing, characterized in that the shaft is mounted in the power take-off console by way of at least one slide bearing , and that oil is supplied to the gearings through at least one of the slide bearings. a shaft designed as a hollow shaft and having gearing on the inside, and at least one internally-geared sleeve having a crowned gearing on an outside surface, the sleeve being connected to the shaft by way of the crowned gearing, characterized in that the shaft is mounted in the power take-off console by way of at least one slide bearing , and that oil is supplied to the gearings through at least one of the slide bearings.
A product comprising a suture thread and a package, the suture thread being sterile and being enclosed within the package so that the package maintains the suture thread sterile, the suture thread having a length, characterised by the suture being in a stressed state which gives the suture thread a tendency to undergo lengthwise viscoelastic contraction, wherein said stressed state was applied by applying a tensile force to the thread so that the thread underwent lengthwise viscoelastic creep, and after the thread underwent said viscoelastic creep, the tensile force was released and the thread was allowed to undergo elastic contraction.
An apparatus for compensating for a torque for a current order of a driving motor, comprising: a current order generator configured to: i) receive a torque order (Tref*), ii) generate a magnetic flux-based current order map using a generated driving point ratio (1/λmax), and iii) generate a current order calculated based on a sum of a square of a d-axis current order and a square of a q-axis current order using the generated current order map; characterized in that the apparatus further comprising: an iron loss torque compensator configured to extract an iron loss torque compensation value for the generated current order and a speed (Wrpm) of the driving motor. a current order generator configured to: i) receive a torque order (Tref*), ii) generate a magnetic flux-based current order map using a generated driving point ratio (1/λmax), and iii) generate a current order calculated based on a sum of a square of a d-axis current order and a square of a q-axis current order using the generated current order map; characterized in that the apparatus further comprising: an iron loss torque compensator configured to extract an iron loss torque compensation value for the generated current order and a speed (Wrpm) of the driving motor.
Vehicle, in particular rail vehicle , having at least one bogie which supports a wagon body situated above it and has at least two track guidance units, in particular at least two wheelsets, characterized in that - a rectifier is held directly or indirectly by means of at least one pendulum by the wagon body floor of the wagon body situated above it, and - at least one link couples the bogie frame mechanically to the rectifier . - a rectifier is held directly or indirectly by means of at least one pendulum by the wagon body floor of the wagon body situated above it, and - at least one link couples the bogie frame mechanically to the rectifier .