mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a frequency stabilized optical frequency comb, the method comprising: frequency stabilizing the optical frequency comb to a continuous wave laser that is frequency stabilized to an optical reference cavity ; generating a low frequency electrical signal from the optical frequency comb; comparing the generated low frequency electrical signal to a reference low frequency electrical signal; determining an optical reference cavity drift based on the comparison; and then adjusting a frequency of the laser in response to the determined optical reference cavity drift. frequency stabilizing the optical frequency comb to a continuous wave laser that is frequency stabilized to an optical reference cavity ; generating a low frequency electrical signal from the optical frequency comb; comparing the generated low frequency electrical signal to a reference low frequency electrical signal; determining an optical reference cavity drift based on the comparison; and then adjusting a frequency of the laser in response to the determined optical reference cavity drift.
Rail vehicle, - wherein the rail vehicle has a running gear , - wherein a wheelset shaft is spring-mounted in the running gear , so that the wheelset shaft can be rotated about an axis of rotation and the running gear is a sprung mass in relation to the wheelset shaft , - wherein a drive motor for the wheelset shaft acts on the wheelset shaft via a coupling , - wherein the drive motor surrounds the wheelset shaft , - wherein the coupling is embodied as a single-plane coupling, - wherein the drive motor is connected to the coupling directly, - wherein the drive motor is suspended at a single point on the running gear when viewed in the direction (y) of the axis of rotation of the wheelset shaft , characterised in that - the suspension of the drive motor on the running gear is embodied such that it enables a movement of the drive motor both in the direction (y) of the axis of rotation of the wheelset shaft and also transversely in relation thereto, wherein the suspension of the drive motor has a single load transfer means , which engages on the drive motor above the drive motor , and, for torque support, is additionally connected to the running gear via at least one guide rod , or the suspension of the drive motor has precisely two load transfer means , which engage to the side of the drive motor , in front of and behind the drive motor when viewed in the direction of travel (x) of the rail vehicle. - wherein the rail vehicle has a running gear , - wherein a wheelset shaft is spring-mounted in the running gear , so that the wheelset shaft can be rotated about an axis of rotation and the running gear is a sprung mass in relation to the wheelset shaft , - wherein a drive motor for the wheelset shaft acts on the wheelset shaft via a coupling , - wherein the drive motor surrounds the wheelset shaft , - wherein the coupling is embodied as a single-plane coupling, - wherein the drive motor is connected to the coupling directly, - wherein the drive motor is suspended at a single point on the running gear when viewed in the direction (y) of the axis of rotation of the wheelset shaft , characterised in that - the suspension of the drive motor on the running gear is embodied such that it enables a movement of the drive motor both in the direction (y) of the axis of rotation of the wheelset shaft and also transversely in relation thereto, wherein the suspension of the drive motor has a single load transfer means , which engages on the drive motor above the drive motor , and, for torque support, is additionally connected to the running gear via at least one guide rod , or the suspension of the drive motor has precisely two load transfer means , which engage to the side of the drive motor , in front of and behind the drive motor when viewed in the direction of travel (x) of the rail vehicle.
A method for producing a nanocluster liquid dispersion, the method comprising generating nanoclusters; and collecting the nanoclusters in a liquid dispersion medium while flowing the dispersion medium where the generated nanoclusters are incident so that the density of said nanoclusters on the surface of said dispersion medium is equal to or less than the aggregation limit of said nanoclusters, detecting whether nanoclusters of predetermined cluster size are generated between the generating and the collecting; and wherein the dispersion medium is a polyethylene glycol, polypropylene glycol, methoxy polyethylene glycol, polydimethylsiloxane or polylmethylphenylsiloxane, wherein ends of the ether bond or the siloxane bond have an alkyl group, and wherein the nanoclusters are a metal-ion-encapsulating silicon cage cluster represented by M@Si with M being a metal ion, selected from the group consisting of a complex cluster of Ta and Si, a complex cluster of Ti and Si, a complex cluster of Lu and Si, a complex cluster of Mo and Si, a complex cluster of W and Si, and a complex cluster of Ru and Si.
A method to execute a secure user login procedure in an application server , comprising: a. running a login software application in a personal computing device , b. connecting , by means of the login software application in the personal computing device , to an application server of interest, c. transmitting to the application server a login request comprising an anonymous identifier and a digital signature of the anonymous identifier, the anonymous identifier being known only to the login software application in the personal computing device and to a login and access software application in the application server , and wherein the anonymous identifier is a public cryptographic key derived from a randomly generated private cryptographic key in an asymmetric system, d. receiving in the application server the login request from the login software application in the personal computing device , e. validating the anonymous identifier by means of the login and access software application by converting the digital signature of the anonymous identifier and matching the converted content with the transmitted anonymous identifier, and granting , upon successfully matching the validated anonymous identifier to a user registration database containing anonymous identifiers, the personal computing device access to the application server for a user session. a. running a login software application in a personal computing device , b. connecting , by means of the login software application in the personal computing device , to an application server of interest, c. transmitting to the application server a login request comprising an anonymous identifier and a digital signature of the anonymous identifier, the anonymous identifier being known only to the login software application in the personal computing device and to a login and access software application in the application server , and wherein the anonymous identifier is a public cryptographic key derived from a randomly generated private cryptographic key in an asymmetric system, d. receiving in the application server the login request from the login software application in the personal computing device , e. validating the anonymous identifier by means of the login and access software application by converting the digital signature of the anonymous identifier and matching the converted content with the transmitted anonymous identifier, and granting , upon successfully matching the validated anonymous identifier to a user registration database containing anonymous identifiers, the personal computing device access to the application server for a user session.
A method for encoding a block of video data in block prediction mode of a display stream compression constant bitrate video encoding scheme, the method comprising: determining one or more first candidate regions to be used to predict a current region within the block of video data based on a first partitioning scheme associated with a block prediction mode, the one or more first candidate regions being within a first range of locations associated with the current region, wherein the one or more first candidate regions are stored in a memory of a video encoding device; determining one or more second candidate regions to be used to predict the current region based on a second partitioning scheme associated with a block prediction mode, the one or more second candidate regions being within a second range of location associated with the current region, wherein the one or more second candidate regions are stored in the memory of the video encoding device; determining whether a first cost associated with encoding the current region based on a sum of absolute differences between the current region and the one or more first candidate regions is greater than a second cost associated with encoding the current region based on a sum of absolute differences between the current region and the one or more second candidate regions ; and in response to determining that the first cost is greater than the second cost, encoding the current region based on the one or more second candidate regions into a bitstream. determining one or more first candidate regions to be used to predict a current region within the block of video data based on a first partitioning scheme associated with a block prediction mode, the one or more first candidate regions being within a first range of locations associated with the current region, wherein the one or more first candidate regions are stored in a memory of a video encoding device; determining one or more second candidate regions to be used to predict the current region based on a second partitioning scheme associated with a block prediction mode, the one or more second candidate regions being within a second range of location associated with the current region, wherein the one or more second candidate regions are stored in the memory of the video encoding device; determining whether a first cost associated with encoding the current region based on a sum of absolute differences between the current region and the one or more first candidate regions is greater than a second cost associated with encoding the current region based on a sum of absolute differences between the current region and the one or more second candidate regions ; and in response to determining that the first cost is greater than the second cost, encoding the current region based on the one or more second candidate regions into a bitstream.
A connector comprising at least one engagement ball that is movable between an engagement position and a disengagement position, wherein a motion of an engagement ball operating part of the connector relatively to an inner housing of the connector can force the at least one engagement ball from the engagement position into the disengagement position, wherein the at least one engagement ball is biased in the engagement position by means of an elastic element indirectly via the engagement ball operating part , and the connector comprises an outer housing with a catch that when the outer housing is operated can engage with a counter catch of the engagement ball operating part to move the engagement ball operating part , so that the engagement ball operating part forces the at least one engagement ball from the engagement position into the disengagement position.
A nasal implant comprising: a first longitudinal body adapted to engage with a septum or a septal cartilage of a patient; a second longitudinal body adapted to engage with an upper lateral cartilage of the patient; and a feature on at least one of the first and second longitudinal bodies adapted to connect the first and second longitudinal bodies , wherein the nasal implant is sized to reside within a nasal tissue of the patient between a mucosa , the septum or septal cartilage, and the upper lateral cartilage to increase a cross-sectional area of a nasal airway; characterized in that the nasal implant further comprises a plurality of barbs located along an outer surface of at least one of the first and second longitudinal bodies , and adapted to engage with the upper lateral cartilage of the patient. a first longitudinal body adapted to engage with a septum or a septal cartilage of a patient; a second longitudinal body adapted to engage with an upper lateral cartilage of the patient; and a feature on at least one of the first and second longitudinal bodies adapted to connect the first and second longitudinal bodies , wherein the nasal implant is sized to reside within a nasal tissue of the patient between a mucosa , the septum or septal cartilage, and the upper lateral cartilage to increase a cross-sectional area of a nasal airway; characterized in that the nasal implant further comprises a plurality of barbs located along an outer surface of at least one of the first and second longitudinal bodies , and adapted to engage with the upper lateral cartilage of the patient.
An apparatus for capturing a water content from air, the apparatus comprising: a housing having an inlet into which the air can flow; a water adsorbent enclosed within the housing, the water adsorbent comprising at least one water adsorbent metal organic framework composite capable of adsorbing a water content from the air, the metal organic framework composite comprising: at least 50 wt% water adsorbent metal organic framework; from 0.2 to 10 wt% magnetic particles having a mean particle diameter of less than 200 nm; and at least 0.1 wt % hydrophilic binder consisting of a hydrophilic cellulose derivative; and a water desorption arrangement in contact with and/or surrounding the water adsorbent, the water desorption arrangement being selectively operable between (i) a deactivated state, and (ii) an activated state in which the arrangement is configured to apply heat to the water adsorbent to desorb a water content from the water adsorbent, wherein the water desorption arrangement comprises an alternating current (AC) magnetic field generator located within and/or around the water adsorbent configured to apply an AC magnetic field to the water adsorbent. a housing having an inlet into which the air can flow; a water adsorbent enclosed within the housing, the water adsorbent comprising at least one water adsorbent metal organic framework composite capable of adsorbing a water content from the air, the metal organic framework composite comprising: at least 50 wt% water adsorbent metal organic framework; from 0.2 to 10 wt% magnetic particles having a mean particle diameter of less than 200 nm; and at least 0.1 wt % hydrophilic binder consisting of a hydrophilic cellulose derivative; and a water desorption arrangement in contact with and/or surrounding the water adsorbent, the water desorption arrangement being selectively operable between (i) a deactivated state, and (ii) an activated state in which the arrangement is configured to apply heat to the water adsorbent to desorb a water content from the water adsorbent, wherein the water desorption arrangement comprises an alternating current (AC) magnetic field generator located within and/or around the water adsorbent configured to apply an AC magnetic field to the water adsorbent.
An apparatus for moving a slide-out room in a side wall of a vehicle, the apparatus comprising: a drive assembly that is supported by the side wall of the vehicle and that includes a motor ; a driven assembly that is driven by the drive assembly and that is connected to a wall of the slide-out room; and a manual override allowing a user to move the slide-out room in the event of failure of the motor, characterized in that the manual override comprises an override drive gear , an override driven gear in mesh with the override drive gear, and an override drive head connected to the override drive gear. a drive assembly that is supported by the side wall of the vehicle and that includes a motor ; a driven assembly that is driven by the drive assembly and that is connected to a wall of the slide-out room; and a manual override allowing a user to move the slide-out room in the event of failure of the motor, characterized in that the manual override comprises an override drive gear , an override driven gear in mesh with the override drive gear, and an override drive head connected to the override drive gear.
A fluoropolymer composite film wire or cable wrap comprising: first means for wrapping around a wire or cable and for forming an abrasion-resistant outer surface of the wire or cable, wherein the first means is at least partially sintered, defines an inner side and an outer side, an overall thickness (T) extending between the inner and outer sides, and a plurality of pores located between the inner and outer sides; and second means for forming an electrically insulative barrier between the wire or cable wrapped within the first means and an ambient atmosphere, wherein the second means is unfilled, is melt processable, is bonded to the inner side of the first means, is received within the pores on the inner side of the first means and bonded thereto, extends into a first portion of the first means defining a first thickness (T1) that is less than the overall thickness (T), but does not extend into a second portion of the first means extending from the first portion to the outer surface and defining a second thickness (T2), the outer surface of the first means and the pores or portions thereof in the second portion are not filled with the second means, and the surfaces defining the pores in the second portion (i) are configured to receive ink from a printer thereon, and/or (ii) are loaded with a laser-markable pigment for marking indicia thereon. first means for wrapping around a wire or cable and for forming an abrasion-resistant outer surface of the wire or cable, wherein the first means is at least partially sintered, defines an inner side and an outer side, an overall thickness (T) extending between the inner and outer sides, and a plurality of pores located between the inner and outer sides; and second means for forming an electrically insulative barrier between the wire or cable wrapped within the first means and an ambient atmosphere, wherein the second means is unfilled, is melt processable, is bonded to the inner side of the first means, is received within the pores on the inner side of the first means and bonded thereto, extends into a first portion of the first means defining a first thickness (T1) that is less than the overall thickness (T), but does not extend into a second portion of the first means extending from the first portion to the outer surface and defining a second thickness (T2), the outer surface of the first means and the pores or portions thereof in the second portion are not filled with the second means, and the surfaces defining the pores in the second portion (i) are configured to receive ink from a printer thereon, and/or (ii) are loaded with a laser-markable pigment for marking indicia thereon.
Reduction gear comprising two gears with different reduction ratios of the teeth , each gear having a first toothed wheel mounted on the same first shaft and a second toothed wheel mounted on the same second shaft , the first toothed wheels being mobile toothed wheels free to slide on the first shaft and both being provided with mesh reliefs with complementary reliefs on the first shaft, said reliefs of the mobile toothed wheels being present on a lateral side of the toothed wheels, the mobile toothed wheels being installed free to rotate on the first shaft but fixed in rotation with the first shaft at corresponding gear positions in which their reliefs engage with the reliefs on the first shaft, in which the teeth of the mobile toothed wheels are helical and have inclinations in a same tangential direction relative to the first shaft , the meshing positions extending between the mobile toothed wheels, characterised in that the first shaft carries a freely sliding spacer , that can come into contact with the two mobile toothed wheels simultaneously, keeping them at a distance that prevents the gear positions from being engaged simultaneously.
A control knob assembly to control an operation of an appliance, comprising: a skirt adapted to engage the appliance, the skirt having a side wall , and a front face which in use will face away from the appliance; a knob adapted to interact with the skirt, the knob having a side wall , the knob being adapted to move axially relative to the skirt; a compression spring located between the knob and the skirt, to bias the knob and the skirt away from each other; characterized in that the skirt or the knob has a spring retaining means (250; 350) adapted to retain the compression spring when the control knob assembly is disassembled. a skirt adapted to engage the appliance, the skirt having a side wall , and a front face which in use will face away from the appliance; a knob adapted to interact with the skirt, the knob having a side wall , the knob being adapted to move axially relative to the skirt; a compression spring located between the knob and the skirt, to bias the knob and the skirt away from each other; characterized in that the skirt or the knob has a spring retaining means (250; 350) adapted to retain the compression spring when the control knob assembly is disassembled.
A method for intelligent adjustment of an immersive multimedia workload in a portable computing device, PCD, the method comprising: monitoring one or more performance indicators comprising a motion to photon latency associated with the immersive multimedia workload; monitoring one or more thermal sensors, wherein the one or more thermal sensors indicate thermal energy generation in the PCD; determining (510; 515) a likelihood of a thermal event based on the one or more thermal sensors, wherein determining the likelihood of a thermal event further comprises estimating a time to throttle in units of frames; identifying a thermally aggressive processing component in the PCD, wherein the thermally aggressive processing component is actively processing a portion of the immersive multimedia workload; identifying a performance parameter associated with the thermally aggressive processing component, based on the likelihood of a thermal event; adjusting a setting of the identified performance parameter, wherein adjusting the setting modifies an overall power consumption by the thermally aggressive processing component such that the likelihood of a thermal event is reduced and the motion to photon latency is optimized. monitoring one or more performance indicators comprising a motion to photon latency associated with the immersive multimedia workload; monitoring one or more thermal sensors, wherein the one or more thermal sensors indicate thermal energy generation in the PCD; determining (510; 515) a likelihood of a thermal event based on the one or more thermal sensors, wherein determining the likelihood of a thermal event further comprises estimating a time to throttle in units of frames; identifying a thermally aggressive processing component in the PCD, wherein the thermally aggressive processing component is actively processing a portion of the immersive multimedia workload; identifying a performance parameter associated with the thermally aggressive processing component, based on the likelihood of a thermal event; adjusting a setting of the identified performance parameter, wherein adjusting the setting modifies an overall power consumption by the thermally aggressive processing component such that the likelihood of a thermal event is reduced and the motion to photon latency is optimized.