mhurhangee/ep-ind-claims huggingface dataset:
A measurement system comprising: measurement means for measuring an analyte using a measurement tool to which an analyte derived from an analyte provider has been or is to be applied, the measurement tool supporting a measurement reagent; and reading means for reading information about the analyte provider that includes identification information of the analyte provider; wherein the measurement means comprises: a plurality of loading units (10a-c) into which the measurement tool may be loaded, characterized in that the reading means is configured to read the information outside the loading units before the measurement tool is loaded into one of the loading units; the system further being characterized in that it comprises selecting means for selecting a loading unit from the plurality of loading units; associating means for individually associating the selected loading unit with the analyte provider based on the identification information that has been read by the reading means; and guidance means (11a-c, 10B, 10S) for guiding a user in loading the measurement tool to the selected loading unit. measurement means for measuring an analyte using a measurement tool to which an analyte derived from an analyte provider has been or is to be applied, the measurement tool supporting a measurement reagent; and reading means for reading information about the analyte provider that includes identification information of the analyte provider; wherein the measurement means comprises: a plurality of loading units (10a-c) into which the measurement tool may be loaded, characterized in that the reading means is configured to read the information outside the loading units before the measurement tool is loaded into one of the loading units; the system further being characterized in that it comprises selecting means for selecting a loading unit from the plurality of loading units; associating means for individually associating the selected loading unit with the analyte provider based on the identification information that has been read by the reading means; and guidance means (11a-c, 10B, 10S) for guiding a user in loading the measurement tool to the selected loading unit. a plurality of loading units (10a-c) into which the measurement tool may be loaded, characterized in that the reading means is configured to read the information outside the loading units before the measurement tool is loaded into one of the loading units; the system further being characterized in that it comprises selecting means for selecting a loading unit from the plurality of loading units; associating means for individually associating the selected loading unit with the analyte provider based on the identification information that has been read by the reading means; and guidance means (11a-c, 10B, 10S) for guiding a user in loading the measurement tool to the selected loading unit.
A camera for capturing component images comprising: multiple lighting units configured to irradiate components with light of a light emitting element; an image capturing unit configured to capture the components irradiated with the light; and multiple lighting unit control sections configured to be provided for the lighting units, respectively; characterized in that each of the lighting unit control sections is configured to turn on, in a case where a common turn- on command signal for the multiple lighting unit control sections including a turn-on command pulse is input from a unit separate from the lightning unit control section, the light emitting element for a turn-on time from a rising edge of the turn-on command pulse included in the turn-on command signal, wherein the turn-on time is calculated by multiplying a pulse width time of the turn-on command pulse by a constant, the constant being set for the lighting unit and stored in a memory of the lightning control section. multiple lighting units configured to irradiate components with light of a light emitting element; an image capturing unit configured to capture the components irradiated with the light; and multiple lighting unit control sections configured to be provided for the lighting units, respectively; characterized in that each of the lighting unit control sections is configured to turn on, in a case where a common turn- on command signal for the multiple lighting unit control sections including a turn-on command pulse is input from a unit separate from the lightning unit control section, the light emitting element for a turn-on time from a rising edge of the turn-on command pulse included in the turn-on command signal, wherein the turn-on time is calculated by multiplying a pulse width time of the turn-on command pulse by a constant, the constant being set for the lighting unit and stored in a memory of the lightning control section.
An apparatus for measuring salinity on a road surface, wherein the apparatus is mounted in a vehicle having a wheel, the vehicle being arranged for traveling on the road surface, the apparatus comprising: a concentration sensor disposed behind the wheel, and for sensing salinity concentration of water bounced up by the wheel; a front nozzle disposed ahead the wheel, and for sprinkling water toward an area of the road surface on which the wheel is to pass; and a rear nozzle disposed between the wheel and the front nozzle, and for sprinkling water toward the wheel. a concentration sensor disposed behind the wheel, and for sensing salinity concentration of water bounced up by the wheel; a front nozzle disposed ahead the wheel, and for sprinkling water toward an area of the road surface on which the wheel is to pass; and a rear nozzle disposed between the wheel and the front nozzle, and for sprinkling water toward the wheel.
A wireless power receiver configured to wirelessly receive power from a wireless power transmitter, the wireless power receiver comprising: a printed circuit board having a first through hole that is vertically open; and a receiving coil disposed inside the first through hole of the printed circuit board and configured to receive power from the wireless power transmitter, a short-range communication antenna embedded in the printed circuit board and surrounding the receiving coil in a horizontal direction; a case disposed under the printed circuit board for receiving the printed circuit board, the receiving coil and short-range communication antenna; and a shielding unit disposed on the receiving coil and short-range communication antenna, wherein the printed circuit board, the receiving coil and the short-range communication antenna are inserted into the case, wherein the shielding unit has a second through hole that is vertically open, wherein the wireless power receiver further comprises a wireless charging circuit configured to transfer rectified power to a load by rectifying power received from the receiving coil, and wherein the wireless charging circuit is disposed inside the second through hole of the shielding unit. a printed circuit board having a first through hole that is vertically open; and a receiving coil disposed inside the first through hole of the printed circuit board and configured to receive power from the wireless power transmitter, a short-range communication antenna embedded in the printed circuit board and surrounding the receiving coil in a horizontal direction; a case disposed under the printed circuit board for receiving the printed circuit board, the receiving coil and short-range communication antenna; and a shielding unit disposed on the receiving coil and short-range communication antenna, wherein the printed circuit board, the receiving coil and the short-range communication antenna are inserted into the case, wherein the shielding unit has a second through hole that is vertically open, wherein the wireless power receiver further comprises a wireless charging circuit configured to transfer rectified power to a load by rectifying power received from the receiving coil, and wherein the wireless charging circuit is disposed inside the second through hole of the shielding unit.
A method of processing a breathing signal comprising: - performing a noise reduction operation on a spectral breathing signal obtained from the breathing signal to compute an output spectral signal, wherein said noise reduction operation comprises spectral subtraction employing a filtered gain function obtained from a gain function, and wherein said gain function is computed based on an estimated noise and a magnitude spectral signal determined based on the spectral breathing signal; and said filtered gain function is obtained by performing a two-dimensional frequency and time filtering of the gain function, said two-dimensional frequency and time filtering of the gain function being performed with a filter kernel that corresponds to a time span of at least 0.05 seconds and to a frequency span of at least 40 Hz. - performing a noise reduction operation on a spectral breathing signal obtained from the breathing signal to compute an output spectral signal, wherein
A radiofrequency oscillator, including: - a controlled source able to generate an incident light beam including at least one optical wave at a reference pulsation frequency ω; - an optomechanical resonator, having an optical resonance at the reference pulsation ω and a mechanical resonance at a reference frequency f 1, the optomechanical resonator being able, from the incident light beam, to generate an emergent light beam including optical waves at the pulsation frequencies ω and ω - 2 πf 1, on the one hand, and an acoustic wave at the reference frequency f 1, on the other hand; - a photodiode, able to deliver a working electrical signal (S out) at the reference frequency f 1 from the emergent light beam of the optomechanical resonator, characterized in that it includes: - an acoustic propagation means able to take off the acoustic wave generated by the optomechanical resonator and propagate it over a predetermined propagation distance (d) in order to introduce a delay (τ) therein so as to produce a delayed acoustic wave; - a conversion means able to convert the delayed acoustic wave at the output of the propagation means into an electrical delay signal (S r) having an oscillation frequency equal to the reference frequency f 1; and - a control loop, able to process the delay signal (S r) in order to obtain an electrical control signal (S C) applied to the source, the electrical control signal having an oscillation frequency equal to the reference frequency f 1. - a controlled source able to generate an incident light beam including at least one optical wave at a reference pulsation frequency ω; - an optomechanical resonator, having an optical resonance at the reference pulsation ω and a mechanical resonance at a reference frequency f 1, the optomechanical resonator being able, from the incident light beam, to generate an emergent light beam including optical waves at the pulsation frequencies ω and ω - 2 πf 1, on the one hand, and an acoustic wave at the reference frequency f 1, on the other hand; - a photodiode, able to deliver a working electrical signal (S out) at the reference frequency f 1 from the emergent light beam of the optomechanical resonator, - an acoustic propagation means able to take off the acoustic wave generated by the optomechanical resonator and propagate it over a predetermined propagation distance (d) in order to introduce a delay (τ) therein so as to produce a delayed acoustic wave; - a conversion means able to convert the delayed acoustic wave at the output of the propagation means into an electrical delay signal (S r) having an oscillation frequency equal to the reference frequency f 1; and - a control loop, able to process the delay signal (S r) in order to obtain an electrical control signal (S C) applied to the source, the electrical control signal having an oscillation frequency equal to the reference frequency f 1.
A marking base composition, comprising: inorganic particles of 27 to 50 mass%; an inorganic binder of 5 to 20 mass%; an organic binder of 3 to 16 mass%; a thermal expansion resin of 1 to 3 mass%, the thermal expansion resin being a resin that has a property in which performing heat treatment at 100 to 200°C causes a 10 to 50-fold increase in volume and the resin is burnt out when subjected to heat treatment at 300 to 800°C for 2 seconds to 30 minutes; and an organic solvent; wherein the organic binder is capable of being burnt out by heat treatment at 300 to 800°C for 2 seconds to 30 minutes. inorganic particles of 27 to 50 mass%; an inorganic binder of 5 to 20 mass%; an organic binder of 3 to 16 mass%; a thermal expansion resin of 1 to 3 mass%, the thermal expansion resin being a resin that has a property in which performing heat treatment at 100 to 200°C causes a 10 to 50-fold increase in volume and the resin is burnt out when subjected to heat treatment at 300 to 800°C for 2 seconds to 30 minutes; and an organic solvent; wherein the organic binder is capable of being burnt out by heat treatment at 300 to 800°C for 2 seconds to 30 minutes.
An antibody capable of binding to the spike protein of coronavirus SARS-CoV-2, wherein the antibody comprises: (a) a heavy chain variable domain comprising the sequence of SEQ ID NO: 952; and (b) a light chain variable domain comprising the sequence of SEQ ID NO: 954. (a) a heavy chain variable domain comprising the sequence of SEQ ID NO: 952; and (b) a light chain variable domain comprising the sequence of SEQ ID NO: 954.
A spacecraft servicing pod, comprising: a body (182, 201) configured to be detached and depleted from a host spacecraft (100, 180) at a location adjacent a target spacecraft, the host spacecraft (100, 180) housing a plurality of spacecraft servicing pods; at least one spacecraft servicing component configured to perform at least one servicing operation on the target spacecraft while being coupled to the target spacecraft, wherein the at least one spacecraft servicing component comprises a thruster assembly configured to alter at least one of an orbit, a velocity, or a momentum of the target spacecraft when coupled to the target spacecraft, the thruster assembly comprising at least one thruster; and a communication device configured to receive data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft from a location remote from the spacecraft servicing pod and, based on the received data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft received by the communication device, the spacecraft servicing pod is configured to control the thruster assembly to alter the at least one of an orbit, a velocity, or a momentum of the target spacecraft while the spacecraft servicing pod is coupled to the target spacecraft. a body (182, 201) configured to be detached and depleted from a host spacecraft (100, 180) at a location adjacent a target spacecraft, the host spacecraft (100, 180) housing a plurality of spacecraft servicing pods; at least one spacecraft servicing component configured to perform at least one servicing operation on the target spacecraft while being coupled to the target spacecraft, wherein the at least one spacecraft servicing component comprises a thruster assembly configured to alter at least one of an orbit, a velocity, or a momentum of the target spacecraft when coupled to the target spacecraft, the thruster assembly comprising at least one thruster; and a communication device configured to receive data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft from a location remote from the spacecraft servicing pod and, based on the received data relating to the at least one of an orbit, a velocity, or a momentum of the target spacecraft received by the communication device, the spacecraft servicing pod is configured to control the thruster assembly to alter the at least one of an orbit, a velocity, or a momentum of the target spacecraft while the spacecraft servicing pod is coupled to the target spacecraft.
A crystalline Form A of -Quinuclidin-3-yl (2-(2-(4-fluorophenyl)thiazol-4-yl)propan-2-yl)carbamate malate, wherein said x-ray powder diffraction contains the following 2-theta peak measured using CuK α radiation: 18.095.
Folding bag which opens at the top and which is provided with two handles, characterised in that it comprises - in the elongate folded state: a base strip which has two ends with two parallel stacks of folds originating from this base strip, - each stack having a top strip and a strap which is associated with each top strip and the two ends of which are engaged in a sheath which originates from each end of the top strip and which leaves the strap free in the central zone of the top strip in order to form handles, - each of the two ends (11, 21, 31, 41): - of the base strip - of the two stacks of folds including those of each top strip, and - of the strap of each upper portion being fixedly joined transversely in order to form the folded structure of the assembly of the ends (11, 21, 31, 41). - in the elongate folded state: a base strip which has two ends with two parallel stacks of folds originating from this base strip, - each stack having a top strip and a strap which is associated with each top strip and the two ends of which are engaged in a sheath which originates from each end of the top strip and which leaves the strap free in the central zone of the top strip in order to form handles, - each of the two ends (11, 21, 31, 41): - of the base strip - of the two stacks of folds including those of each top strip, and - of the strap of each upper portion being fixedly joined transversely in order to form the folded structure of the assembly of the ends (11, 21, 31, 41).
A method comprising: providing, by a host system, a virtual environment to a guest device and providing the guest device access to a source storage device managed by the host system; initiating migration of contents of the source storage device to a destination storage device; modifying a logical to physical mapping of the destination storage device such that each logical address in the logical to physical mapping is associated with a particular code that indicates that the data associated with the logical address is invalid; suspending the virtual environment for the guest device and discontinuing access to the source storage device by the guest; before completing migration of the source storage device to the destination storage device, resuming the virtual environment for the guest device and providing the guest device access to the destination storage device instead of the source storage device; providing the guest device access to the destination storage device over a logical interface of the destination storage device; and directing write requests from the guest device to the destination storage device, wherein carrying out write operations to the destination storage device in response to the write requests involves, for each write operation, writing a physical address to the logical to physical mapping such that the particular code is cleared. providing, by a host system, a virtual environment to a guest device and providing the guest device access to a source storage device managed by the host system; initiating migration of contents of the source storage device to a destination storage device; modifying a logical to physical mapping of the destination storage device such that each logical address in the logical to physical mapping is associated with a particular code that indicates that the data associated with the logical address is invalid; suspending the virtual environment for the guest device and discontinuing access to the source storage device by the guest; before completing migration of the source storage device to the destination storage device, resuming the virtual environment for the guest device and providing the guest device access to the destination storage device instead of the source storage device; providing the guest device access to the destination storage device over a logical interface of the destination storage device; and directing write requests from the guest device to the destination storage device, wherein carrying out write operations to the destination storage device in response to the write requests involves, for each write operation, writing a physical address to the logical to physical mapping such that the particular code is cleared.
A method for preventing a relay attack of a smart key System for a vehicle, comprising: a challenge signal receiving operation of receiving, by a fob key carried by a user, a challenge signal applied from a smart key unit,SMK unit, installed in a vehicle; a response signal transmitting operation of transmitting? by the fob key, a response signal including an encoding code to the SMK unit after the challenge signal receiving operation; a response signal receiving operation of receiving, by the SMK unit, the response signal after the response signal transmitting operation; a first attack signal detecting operation of detecting a noise signal included in the response signal received by the SMK unit after the response signal receiving operation; and a functional operation unit operation controlling operation of controlling operations of various functional operation units installed in the vehicle according to a decoding result by the first attack signal detecting operation, wherein the response signal receiving operation includes a signal determining process of determining whether the challenge signal received in the SMK unit is generated by an LF signal generated by triggering of a door handle or an RF signal input by an operation of a plurality of switches provided in the fob key, in which an output level of the response signal is controlled to be different according to the kind of input signal. a challenge signal receiving operation of receiving, by a fob key carried by a user, a challenge signal applied from a smart key unit,SMK unit, installed in a vehicle; a response signal transmitting operation of transmitting? by the fob key, a response signal including an encoding code to the SMK unit after the challenge signal receiving operation; a response signal receiving operation of receiving, by the SMK unit, the response signal after the response signal transmitting operation; a first attack signal detecting operation of detecting a noise signal included in the response signal received by the SMK unit after the response signal receiving operation; and a functional operation unit operation controlling operation of controlling operations of various functional operation units installed in the vehicle according to a decoding result by the first attack signal detecting operation, wherein the response signal receiving operation includes a signal determining process of determining whether the challenge signal received in the SMK unit is generated by an LF signal generated by triggering of a door handle or an RF signal input by an operation of a plurality of switches provided in the fob key, in which an output level of the response signal is controlled to be different according to the kind of input signal.