mhurhangee/patent-ind-claim-en huggingface dataset:
An optical sensor device comprising a light source , a first fiber (SMF1), wherein light from said light source is coupled into said first fiber (SMF1), an integrated-optics beam splitter having an optoelectronics-side entry port (PT1), a first and a second optoelectronics-side exit port (PT2, PT3) and a sensing-side port (PT5), wherein light entering said optoelectronics-side entry port (PT1) is coupled at least partially into said sensing-side port (PT5) and light entering said sensing-side port (PT5) is split at least partially into said first and second optoelectronics-side exit ports (PT2, PT3), and wherein said first fiber (SMF1) is positioned to send light into said optoelectronics-side entry port (PT1), a sensing element whose birefringence changes as a function of a measurand, wherein light from said sensing-side port (PT5) is coupled into said sensing element , is reflected and is coupled back into said sensing-side port (PT5), at least a second fiber (SMF2) and a third fiber (SMF3), wherein light from said first and said second optoelectronics-side exit ports (PT2, PT3) is fed into said second and third fibers (SMF2, SMF3), respectively, light detectors (PD1, PD2) for measuring light exiting from said second and third fibers (SMF2, SMF3), wherein said beam splitter comprises a) a plurality of waveguide sections (W1 - W5) and splitting junctions (J1 - J3), and b) a first and a second facet on opposite sides of said integrated-optics beam splitter , wherein said optoelectronics-side entry port (PT1) and said optoelectronics-side exit ports (PT2 - PT4) are arranged at said first facet and said sensing-side port (PT5) is arranged at said second facet , wherein, in a direction Y parallel to said first facet , said sensing-side port (PT5) is offset, by a non-zero minimum port-port-offset, in respect to said optoelectronics-side entry port (PT1) and said first and second optoelectronics-side exit ports (PT2, PT3), characterized in that in said direction Y, said sensing-side port (PT5) is offset, by a non-zero minimum junction-port-offset, in respect to any junction (J1 - J3) that the light from said optoelectronics-side entry port (PT1) passes on its way to said sensing-side port (PT5). a) a plurality of waveguide sections (W1 - W5) and splitting junctions (J1 - J3), and b) a first and a second facet on opposite sides of said integrated-optics beam splitter , wherein said optoelectronics-side entry port (PT1) and said optoelectronics-side exit ports (PT2 - PT4) are arranged at said first facet and said sensing-side port (PT5) is arranged at said second facet ,
Device for the odorization of a gas circulating in a pipeline comprising: - a tank for a liquid odorizing compound; - a means for detecting differences in pressure between the pipeline and the tank; - a means for pressurizing the compound in the tank according to the pressure difference; - a microperforated membrane acting as an interface between the tank and an inner volume of the pipeline; and - a means for vibrating the microperforated membrane in order to spray the liquid odorizing compound, when it comes into contact with the membrane, into the pipeline. - a tank for a liquid odorizing compound; - a means for detecting differences in pressure between the pipeline and the tank; - a means for pressurizing the compound in the tank according to the pressure difference; - a microperforated membrane acting as an interface between the tank and an inner volume of the pipeline; and - a means for vibrating the microperforated membrane in order to spray the liquid odorizing compound, when it comes into contact with the membrane, into the pipeline.
A method to manage wireless network resources in a wireless local area network, WLAN, controller, comprising: maintaining, in a memory coupled to the controller, a list of specified service set identifier, SSID, devices, wherein the SSID devices are access point devices; maintaining a plurality of designated communication channels available for use in a wireless network environment; defining at least a first reserved communication channel from the plurality of communication channels; receiving a request from an SSID device for access to wireless network resources managed by the WLAN controller; and allocating the at least a first reserved communication channel to the SSID device when the SSID device is on the list of specified SSID devices. maintaining, in a memory coupled to the controller, a list of specified service set identifier, SSID, devices, wherein the SSID devices are access point devices; maintaining a plurality of designated communication channels available for use in a wireless network environment; defining at least a first reserved communication channel from the plurality of communication channels; receiving a request from an SSID device for access to wireless network resources managed by the WLAN controller; and allocating the at least a first reserved communication channel to the SSID device when the SSID device is on the list of specified SSID devices.
A vehicle body side structure comprising: a side sill extending in a longitudinal direction of a vehicle at a side bottom of the vehicle and having a recess sagging inward in a width direction of the vehicle and extending in the longitudinal direction; a door being hollow, having a door bottom portion disposed so as to overlap the side sill when seen from a side, and being arranged at an outer side of the side sill in the width direction; and a force transferring member having a projection protruding inward in the width direction, being disposed in a hollow interior of the door bottom portion , and being configured to transfer force acting inward in the width direction to the side sill , wherein the projection fits into the recess when the vehicle has a side collision. a side sill extending in a longitudinal direction of a vehicle at a side bottom of the vehicle and having a recess sagging inward in a width direction of the vehicle and extending in the longitudinal direction; a door being hollow, having a door bottom portion disposed so as to overlap the side sill when seen from a side, and being arranged at an outer side of the side sill in the width direction; and a force transferring member having a projection protruding inward in the width direction, being disposed in a hollow interior of the door bottom portion , and being configured to transfer force acting inward in the width direction to the side sill , wherein the projection fits into the recess when the vehicle has a side collision.
Method for checking a detuning facility of an antenna coil of a magnetic resonance tomography unit , wherein the method comprises the steps: (S10) Activating the detuning facility of the antenna coil; (S20) Receiving a first receive signal with a receiver ; (S50) Receiving a second receive signal with the receiver ; (S60) Comparing the first receive signal with the second receive signal by means of a test controller; (S70) Outputting a warning signal if the result of the comparison does not match a predetermined relation for the first receive signal to the second receive signal, wherein the method has a step (S30) of deactivating the detuning facility , wherein the step (S50) of receiving the second receive signal takes place with the detuning facility switched off and in the step (S60) of comparing, a noise level of the first receive signal is compared with a noise level of the second receive signal, wherein the first and the second receive signal is in each case a high-frequency current and/or voltage signal which reaches the receiver in an analogue or digitised manner and has information relating to amplitude, phase and/or spectral distribution. (S10) Activating the detuning facility of the antenna coil; (S20) Receiving a first receive signal with a receiver ; (S50) Receiving a second receive signal with the receiver ; (S60) Comparing the first receive signal with the second receive signal by means of a test controller; (S70) Outputting a warning signal if the result of the comparison does not match a predetermined relation for the first receive signal to the second receive signal, wherein the method has a step (S30) of deactivating the detuning facility , wherein the step (S50) of receiving the second receive signal takes place with the detuning facility switched off and in the step (S60) of comparing, a noise level of the first receive signal is compared with a noise level of the second receive signal, wherein the first and the second receive signal is in each case a high-frequency current and/or voltage signal which reaches the receiver in an analogue or digitised manner and has information relating to amplitude, phase and/or spectral distribution.
A method of processing eggs at a poultry hatchery, the method comprising: setting a production quantity of avian eggs in a setter incubator, the eggs being maintained in a plurality of egg flats; removing the avian eggs from the setter incubator on a predetermined day of incubation, such predetermined day being during about day nine to day twelve of incubation; subsequent to removing the avian eggs from the setter incubator, subjecting the avian eggs to an egg detection system on the predetermined day to determine which of the avian eggs are viable and non-viable; characterised in that the method further comprises the steps of: removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system. setting a production quantity of avian eggs in a setter incubator, the eggs being maintained in a plurality of egg flats; removing the avian eggs from the setter incubator on a predetermined day of incubation, such predetermined day being during about day nine to day twelve of incubation; subsequent to removing the avian eggs from the setter incubator, subjecting the avian eggs to an egg detection system on the predetermined day to determine which of the avian eggs are viable and non-viable; characterised in that the method further comprises the steps of: removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system. removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system.
A mobile wireless device , comprising: an antenna array comprising an array of omnidirectional antennas for receiving and/or transmitting wireless signals; a motion sensor coupled to the antenna array, the motion sensor configured to detect a change in orientation of the antenna array; means for determining whether the detected change meets or exceeds a threshold; and a first circuitry coupled to the antenna array, the first circuitry configured to receive channel state information, CSI, and to reconfigure the antenna array, based on the received CSI, if it is determined that the detected change in orientation meets or exceeds the threshold, wherein the CSI comprises attributes associated with a communication link for assessing transmission and reception conditions comprising effects of scattering, fading, and/or power decay with distance, and wherein reconfiguring the antenna array comprises determining beam parameters, such as phase relationships, for the antenna array as part of a recalibration procedure for determining an ideal antenna configuration in response to the antenna array's movement. an antenna array comprising an array of omnidirectional antennas for receiving and/or transmitting wireless signals; a motion sensor coupled to the antenna array, the motion sensor configured to detect a change in orientation of the antenna array; means for determining whether the detected change meets or exceeds a threshold; and a first circuitry coupled to the antenna array, the first circuitry configured to receive channel state information, CSI, and to reconfigure the antenna array, based on the received CSI, if it is determined that the detected change in orientation meets or exceeds the threshold, wherein the CSI comprises attributes associated with a communication link for assessing transmission and reception conditions comprising effects of scattering, fading, and/or power decay with distance, and wherein reconfiguring the antenna array comprises determining beam parameters, such as phase relationships, for the antenna array as part of a recalibration procedure for determining an ideal antenna configuration in response to the antenna array's movement.
A system having a server device that provides an application as a service over a network to a client computing device , the system comprising: a first probing device configured to: monitor a network communication session on a server-side network ; generate first timing information regarding the network communication session on the server-side network ; a second probing device configured to: monitor a network communication session on a client-side network ; generate second timing information regarding the network communication session on the client-side network ; send the timing information to the first probing device , wherein the first probing device is configured to generate end-to-end performance metrics based on the first and second timing information. monitor a network communication session on a server-side network ; generate first timing information regarding the network communication session on the server-side network ; a second probing device configured to: monitor a network communication session on a client-side network ; generate second timing information regarding the network communication session on the client-side network ; send the timing information to the first probing device , wherein the first probing device is configured to generate end-to-end performance metrics based on the first and second timing information. monitor a network communication session on a client-side network ; generate second timing information regarding the network communication session on the client-side network ; send the timing information to the first probing device , wherein the first probing device is configured to generate end-to-end performance metrics based on the first and second timing information.
Aheat-radiating sheet having a volume resistivity of 1.0 × 10 9 Ω·cm or more, the volume resistivity being measured by a method comprising impregnating the heat-radiating sheet with an antifreeze containing 98% by mass or more of ethylene glycol at a temperature 25°C for 250 hours and subsequently applying a direct current voltage of 500 V according to JIS K6911-1995.
A system for detecting one or more analyte species present in a gaseous or liquid medium, the system comprising: a resonant optical cavity containing said medium and having at least two cavity mirrors , one of which is a cavity coupling mirror , the cavity having a plurality of optical resonance cavity modes; a laser that emits continuous wave laser light, wherein the laser is capable of being scanned whereby a mean optical frequency of the laser is adjustable over a range of frequencies, and wherein the laser is responsive to optical feedback light emerging from the cavity ; mode matching optics configured to couple the laser light to the cavity via the cavity coupling mirror ; and a detector configured to measure an intensity of the intracavity optical power of light circulating in the cavity and to generate a signal representing the intracavity optical power of light circulating in the cavity ; characterised in that the transmissivity of at least one of the cavity mirrors is selected so that the intensity of the optical feedback light impinging on the laser is below a threshold intensity value so as to ensure that a frequency hold interval range of the optical frequency of the laser is smaller than a free spectral range of the cavity and no additional optical elements are provided in the path between the laser and the cavity dedicated to control optical feedback strength. a resonant optical cavity containing said medium and having at least two cavity mirrors , one of which is a cavity coupling mirror , the cavity having a plurality of optical resonance cavity modes; a laser that emits continuous wave laser light, wherein the laser is capable of being scanned whereby a mean optical frequency of the laser is adjustable over a range of frequencies, and wherein the laser is responsive to optical feedback light emerging from the cavity ; mode matching optics configured to couple the laser light to the cavity via the cavity coupling mirror ; and a detector configured to measure an intensity of the intracavity optical power of light circulating in the cavity and to generate a signal representing the intracavity optical power of light circulating in the cavity ; characterised in that the transmissivity of at least one of the cavity mirrors is selected so that the intensity of the optical feedback light impinging on the laser is below a threshold intensity value so as to ensure that a frequency hold interval range of the optical frequency of the laser is smaller than a free spectral range of the cavity and no additional optical elements are provided in the path between the laser and the cavity dedicated to control optical feedback strength.
A display device for a vehicle, comprising: a first frame configured to be coupled to a dashboard of the vehicle, at least a portion of the first frame being configured to be coupled to an inside of the dashboard ; a second frame configured to move vertically relative to the first frame ; a first actuator configured to move the second frame upward and downward relative to the first frame to thereby change an area of the second frame that is exposed to an outside of the dashboard ; characterized in that the display device further comprises a flexible display comprising: a first area that extends along the second frame and defines a flat surface, and a second area that is configured to extend from the first area , wherein the display device is configured to vary a shape of the second area ; a first roller that extends in an upward-downward direction and that supports an inner surface of the flexible display to allow the second area to be curved around the first roller ; a first moving body that extends in the upward-downward direction and is coupled to an end portion of the second area ; and a second actuator configured to move the first roller and the first moving body laterally in a leftward-rightward direction relative to the second frame . a first frame configured to be coupled to a dashboard of the vehicle, at least a portion of the first frame being configured to be coupled to an inside of the dashboard ; a second frame configured to move vertically relative to the first frame ; a first actuator configured to move the second frame upward and downward relative to the first frame to thereby change an area of the second frame that is exposed to an outside of the dashboard ; characterized in that the display device further comprises a flexible display comprising: a first area that extends along the second frame and defines a flat surface, and a second area that is configured to extend from the first area , wherein the display device is configured to vary a shape of the second area ; a first roller that extends in an upward-downward direction and that supports an inner surface of the flexible display to allow the second area to be curved around the first roller ; a first moving body that extends in the upward-downward direction and is coupled to an end portion of the second area ; and a second actuator configured to move the first roller and the first moving body laterally in a leftward-rightward direction relative to the second frame . a first area that extends along the second frame and defines a flat surface, and a second area that is configured to extend from the first area , wherein the display device is configured to vary a shape of the second area ; a first roller that extends in an upward-downward direction and that supports an inner surface of the flexible display to allow the second area to be curved around the first roller ; a first moving body that extends in the upward-downward direction and is coupled to an end portion of the second area ; and a second actuator configured to move the first roller and the first moving body laterally in a leftward-rightward direction relative to the second frame .
A stable glucagon formulation comprising: (a) a glucagon peptide or salt thereof, wherein the glucagon peptide or salt thereof is not prepared by drying in the presence of a non-volatile buffer having a pH of 2 to 4 to produce a glucagon peptide having a pH memory of 2 to 4; (b) an ionization stabilizing excipient, wherein the ionization stabilizing excipient is a mineral acid; and (c) an aprotic polar solvent; wherein (i) the glucagon peptide or salt thereof is dissolved in the aprotic solvent in an amount from about 0.1 mg/mL up to the solubility limit of the glucagon peptide or salt thereof, and (ii) the ionization stabilizing excipient is dissolved in the aprotic solvent in an amount to stabilize the ionization of the glucagon peptide or salt thereof wherein the ionization stabilizing excipient is at a concentration of 0.1 mM to less than 100 mM. (a) a glucagon peptide or salt thereof, wherein the glucagon peptide or salt thereof is not prepared by drying in the presence of a non-volatile buffer having a pH of 2 to 4 to produce a glucagon peptide having a pH memory of 2 to 4; (b) an ionization stabilizing excipient, wherein the ionization stabilizing excipient is a mineral acid; and (c) an aprotic polar solvent;
An assembly comprising a luminescent body , a thermally conductive element , and a coating layer , wherein: - the luminescent body comprises a luminescent material , wherein the luminescent body comprises a ceramic luminescent body, and wherein the luminescent body comprises an external surface ; - the thermally conductive element comprises metal material ; - at least 25% of the external surface is in thermal contact with the thermally conductive element ; - wherein the coating layer is configured between the luminescent body and the thermally conductive element ; - wherein the coating layer and the thermally conductive element are conformal to the luminescent body ; - wherein the thermally conductive element comprises supersonic particle deposited metal material ; - wherein 25-95% of the external surface is surrounded by the thermally conductive element ; - wherein the supersonic particle deposited metal material has a porosity selected from the range of 5-30%. - the luminescent body comprises a luminescent material , wherein the luminescent body comprises a ceramic luminescent body, and wherein the luminescent body comprises an external surface ; - the thermally conductive element comprises metal material ; - at least 25% of the external surface is in thermal contact with the thermally conductive element ; - wherein the coating layer is configured between the luminescent body and the thermally conductive element ; - wherein the coating layer and the thermally conductive element are conformal to the luminescent body ; - wherein the thermally conductive element comprises supersonic particle deposited metal material ; - wherein 25-95% of the external surface is surrounded by the thermally conductive element ; - wherein the supersonic particle deposited metal material has a porosity selected from the range of 5-30%.