mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: selecting a mesh-type scaler for performing overall mesh-wide scaling of a microservices mesh that provides containers and microservices-based applications with services that integrate directly from within a computing cluster, wherein applications and services can be scaled-out by adding more instances and scaled-in by removing instances of said services; scaling, with the mesh-type scaler and one or more mesh scaling rules , the microservices mesh to generate a predicted value for a monitoring parameter; selecting a single-service-type scaler configured to compute a change in a number of instances as a function of a current number of instances of an individual service; measuring the monitoring parameter with the single-service-type-scaler to generate a measured value, wherein the monitoring parameter is read from a monitoring infrastructure of the containers executing the instances of the services and the monitoring parameter comprises system load of the containers the individual service runs in; for said individual service associated with the microservices mesh, calculating a target value for the monitoring parameter using the predicted value and the measured value; comparing the target value against a defined threshold to generate a scaling value used to determine if scaling is needed with respect to the individual service . selecting a mesh-type scaler for performing overall mesh-wide scaling of a microservices mesh that provides containers and microservices-based applications with services that integrate directly from within a computing cluster, wherein applications and services can be scaled-out by adding more instances and scaled-in by removing instances of said services; scaling, with the mesh-type scaler and one or more mesh scaling rules , the microservices mesh to generate a predicted value for a monitoring parameter; selecting a single-service-type scaler configured to compute a change in a number of instances as a function of a current number of instances of an individual service; measuring the monitoring parameter with the single-service-type-scaler to generate a measured value, wherein the monitoring parameter is read from a monitoring infrastructure of the containers executing the instances of the services and the monitoring parameter comprises system load of the containers the individual service runs in; for said individual service associated with the microservices mesh, calculating a target value for the monitoring parameter using the predicted value and the measured value; comparing the target value against a defined threshold to generate a scaling value used to determine if scaling is needed with respect to the individual service .
A method of detecting flameout in a combustor of a turbine system , wherein the turbine system comprises a compressor upstream said combustor and a turbine downstream said combustor , the method comprising the steps of: A) measuring angular acceleration of a shaft of said turbine ; B) calculating a flameout indicator as a function of said measured angular acceleration, a pressure measured at an outlet of said compressor , and a thermal power generated by said combustor ; and C) carrying out a comparison between said flameout indicator and a threshold, said threshold depending on a load state of the turbine system ; characterised in that at step B said flameout indicator is calculated according to the formula: − A ∗ Pth / p in which formula - A is the measured angular acceleration of the shaft of the turbine , if the turbine decelerates, Pth is the calculated thermal power generated by the combustor , and p is the pressure measured at an outlet of the compressor . A) measuring angular acceleration of a shaft of said turbine ; B) calculating a flameout indicator as a function of said measured angular acceleration, a pressure measured at an outlet of said compressor , and a thermal power generated by said combustor ; and C) carrying out a comparison between said flameout indicator and a threshold, said threshold depending on a load state of the turbine system ; characterised in that at step B said flameout indicator is calculated according to the formula: − A ∗ Pth / p in which formula - A is the measured angular acceleration of the shaft of the turbine , if the turbine decelerates, Pth is the calculated thermal power generated by the combustor , and p is the pressure measured at an outlet of the compressor . - A is the measured angular acceleration of the shaft of the turbine , if the turbine decelerates,
Eyewear comprising: - A pair of lenses ; - A pair of releasable connectors connected to respective inner ends of said lenses, said connectors being securely connectable together and releasable from each other; - A pair of temples connected to respective outer ends of said lenses; and - A strap connected between rear ends of said temples, said strap being rigid enough to generally retain its shape when said connectors are released and springy enough to be bendable when flexed and rebounding when released, said strap comprising substantially parallel legs being connected to rear ends of said temples, transition segments having a first shape extending from said substantially parallel legs to an arc-shaped base extending along the back of a user's head when worn, - Characterized in that said transition segments are bendable by a user causing said transition segments to change from said first shape to a second shape and to maintain said second shape unless bent further by a user. - A pair of lenses ; - A pair of releasable connectors connected to respective inner ends of said lenses, said connectors being securely connectable together and releasable from each other; - A pair of temples connected to respective outer ends of said lenses; and - A strap connected between rear ends of said temples, said strap being rigid enough to generally retain its shape when said connectors are released and springy enough to be bendable when flexed and rebounding when released, said strap comprising substantially parallel legs being connected to rear ends of said temples, transition segments having a first shape extending from said substantially parallel legs to an arc-shaped base extending along the back of a user's head when worn, - Characterized in that said transition segments are bendable by a user causing said transition segments to change from said first shape to a second shape and to maintain said second shape unless bent further by a user.
A combination of (i) an immune checkpoint modulator and (ii) a complex comprising: a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist, wherein the components a) - c) comprised by the complex are covalently linked, for use in medicine. (i) an immune checkpoint modulator and (ii) a complex comprising: a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist, a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist,
A network access entity for providing access to a communication network for a user equipment and a home gateway , the home gateway being connected to the network access entity via a first communication link , the user equipment being being connected to the network access entity via a second communication link and being connected to the home gateway via a third communication link , the first communication link and the third communication link forming a composite communication link, the network access entity comprising: a network interface being configured to receive a first status signal indicating a link quality of the first communication link , a second status signal indicating a link quality of the second communication link , and a third status signal indicating a link quality of the composite communication link; and a data flow manager for distributing data of a data stream towards the user equipment via the first communication link and via the second communication link , wherein the data flow manager is configured to determine a reduction of an amount of data of the data stream communicated over the first communication link ; and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal. a network interface being configured to receive a first status signal indicating a link quality of the first communication link , a second status signal indicating a link quality of the second communication link , and a third status signal indicating a link quality of the composite communication link; and a first status signal indicating a link quality of the first communication link , a second status signal indicating a link quality of the second communication link , and a third status signal indicating a link quality of the composite communication link; and a data flow manager for distributing data of a data stream towards the user equipment via the first communication link and via the second communication link , wherein the data flow manager is configured to determine a reduction of an amount of data of the data stream communicated over the first communication link ; and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal. to determine a reduction of an amount of data of the data stream communicated over the first communication link ; and to determine an increase of an amount of data of the data stream communicated over the second communication link , if at least one of the first status signal or the second status signal indicates a higher link quality than a link quality that is indicated by the third status signal.
Valve-actuating device , comprising a manual operating element and a valve which can be actuated by means of the manual operating element , wherein a control element is operatively connected to the manual operating element , wherein the valve can be actuated by a distal end of the control element , and a compensating device is arranged in operative connection between the control element and the manual operating element , which compensating device has a plunger , which is movably guided in a receptacle , and allows a relative movement of the manual operating element with respect to the control element , and wherein a restoring element is present which counters the relative movement with a restoring force, wherein an adjusting device is formed by means of which a maximum distance between a valve seat of the valve and the distal end of the control element can be adjusted, characterized in that , by means of the adjusting device , a distance between the receptacle of the compensating device and the manual operating element can be changed.
A single-screw compressor comprising: a screw rotor provided with helical grooves ; a gate rotor assembly meshing with the screw rotor ; and a casing housing the screw rotor and the gate rotor assembly , wherein the gate rotor assembly comprises: a first gate rotor and a second gate rotor each having a plurality of gates , each of the gates entering an associated one of the helical grooves of the screw rotor to form a compression chamber ; and a rotor support member attached to the first gate rotor and the second gate rotor and rotatably supported by the casing , each of the helical grooves of the screw rotor has a front sidewall surface on a front side in a direction of rotation of the screw rotor , and a rear sidewall surface on a rear side in the direction of rotation of the screw rotor , characterized in that each of the gates of the first gate rotor slides only on the front sidewall surface , of the front sidewall surface and rear sidewall surface of the associated one of the helical grooves in which the gate has entered, each of the gates of the second gate rotor slides only on the rear sidewall surface , of the front sidewall surface and rear sidewall surface of the helical groove in which the gate has entered, and the first gate rotor and second gate rotor of the gate rotor assembly are coaxially arranged and are relatively displaceable in a circumferential direction. a first gate rotor and a second gate rotor each having a plurality of gates , each of the gates entering an associated one of the helical grooves of the screw rotor to form a compression chamber ; and a rotor support member attached to the first gate rotor and the second gate rotor and rotatably supported by the casing , each of the helical grooves of the screw rotor has a front sidewall surface on a front side in a direction of rotation of the screw rotor , and a rear sidewall surface on a rear side in the direction of rotation of the screw rotor , characterized in that each of the gates of the first gate rotor slides only on the front sidewall surface , of the front sidewall surface and rear sidewall surface of the associated one of the helical grooves in which the gate has entered, each of the gates of the second gate rotor slides only on the rear sidewall surface , of the front sidewall surface and rear sidewall surface of the helical groove in which the gate has entered, and the first gate rotor and second gate rotor of the gate rotor assembly are coaxially arranged and are relatively displaceable in a circumferential direction.
A portal scraper for unloading bulk materials, comprising a support structure that can move along a bulk material dump and is based on a framework structure , and a boom , which can be lifted or lowered in a vertical plane by means of a rope deflection that acts on the support structure and boom , wherein the support structure has at least one inclined section that overlaps the bulk material dump, characterized in that the framework structure contains at least one framework structure adaptor piece and the boom contains at least one boom adaptor piece , so that the portal scraper can be modularly varied in its track width corresponding to the length of the boom adaptor piece , wherein the length of the framework structure adaptor piece and the length of the boom adaptor piece are tailored to each other in such a way that adding or subtracting the same number of framework structure adaptor pieces in the support structure and boom adaptor pieces in the boom makes it possible to modularly vary the track width of the portal scraper .
Migalastat or salt thereof for use in a method of treating Fabry disease in an enzyme replacement therapy (ERT)-experienced patient diagnosed with Fabry disease and having mild renal impairment, the method comprising administering to the patient an effective amount of the migalastat or salt thereof at a frequency of once every other day, wherein the effective amount is 100 mg to 150 mg free base equivalent (FBE).
A rotation angle detection apparatus comprising: a driving gear configured to rotate integrally with a component whose rotation is to be detected; two driven gears having different numbers of teeth, each of the driven gears being in mesh with the driving gear ; two sensors each configured to detect a rotation angle (α, β) of an associated one of the two driven gears ; and an arithmetic circuit configured to compute a rotation angle (θ) of the driving gear based on the rotation angles (α, β) of the two driven gears , detected through the two sensors , the arithmetic circuit being configured to, when a relationship between the rotation angles (α, β) of the two driven gears , detected through the two sensors , is different from the relationship when the rotation angle (α) of the driving gear , computed by the arithmetic circuit , is normal, detect an abnormality in the rotation angle (α) of the driving gear , computed by the arithmetic circuit , characterized in that the arithmetic circuit is configured to detect an abnormality in the rotation angle (θ) of the driving gear based on a difference (Δαβ) between the rotation angle (α) of the first driven gear and the rotation angle (β) of the second driven gear and an ideal difference after adjustment of gradients such that the gradient of the rotation angle (α) of the first driven gear to the rotation angle (θ) of the driving gear and the gradient of the rotation angle (β) of the second driven gear to the rotation angle of the driving gear are made equal to each other. a driving gear configured to rotate integrally with a component whose rotation is to be detected; two driven gears having different numbers of teeth, each of the driven gears being in mesh with the driving gear ; two sensors each configured to detect a rotation angle (α, β) of an associated one of the two driven gears ; and an arithmetic circuit configured to compute a rotation angle (θ) of the driving gear based on the rotation angles (α, β) of the two driven gears , detected through the two sensors , the arithmetic circuit being configured to, when a relationship between the rotation angles (α, β) of the two driven gears , detected through the two sensors , is different from the relationship when the rotation angle (α) of the driving gear , computed by the arithmetic circuit , is normal, detect an abnormality in the rotation angle (α) of the driving gear , computed by the arithmetic circuit , characterized in that the arithmetic circuit is configured to detect an abnormality in the rotation angle (θ) of the driving gear based on a difference (Δαβ) between the rotation angle (α) of the first driven gear and the rotation angle (β) of the second driven gear and an ideal difference after adjustment of gradients such that the gradient of the rotation angle (α) of the first driven gear to the rotation angle (θ) of the driving gear and the gradient of the rotation angle (β) of the second driven gear to the rotation angle of the driving gear are made equal to each other.
A method of bonding silicone thermal insulation material to a substrate useable subsea, the method comprising: applying a silicone tie coat to the substrate to a thickness of at least 20 μm, the silicone tie coat being the reaction product of a mixture comprising polydiorganosiloxane polymer and an organohydrogensiloxane crosslinker, the reaction being catalyzed by a metallic catalyst, the method further comprising bonding silicone thermal insulation material to the silicone tie coat. applying a silicone tie coat to the substrate to a thickness of at least 20 μm, the silicone tie coat being the reaction product of a mixture comprising polydiorganosiloxane polymer and an organohydrogensiloxane crosslinker, the reaction being catalyzed by a metallic catalyst, the method further comprising bonding silicone thermal insulation material to the silicone tie coat.
A fuel injection controller for an engine , the engine including a plurality of cylinders (#1 to #4) and a plurality of fuel injection valves provided respectively in the cylinders (#1 to #4), wherein the fuel injection controller is configured to control each of fuel injection amounts of the fuel injection valves , the fuel injection controller is configured to have, as correction values for fuel injection amounts of the fuel injection valves , an air-fuel ratio feedback correction value, which is updated such that a difference between an exhaust air-fuel ratio, which is detected by an air-fuel ratio sensor installed in an exhaust passage , and a target air-fuel ratio approaches zero, an air-fuel ratio learning value, which is updated based on the air-fuel ratio feedback correction value such that an amount of correction of the fuel injection amount according to the air-fuel ratio feedback correction value approaches zero, and respective-cylinder correction values, which are set for the respective cylinders to differentiate the air fuel ratios of the cylinders (#1 to #4), and the fuel injection controller is configured to make an update rate of the air-fuel ratio learning value lower when a variation among the respective-cylinder correction values of the cylinders (#1 to #4) is great than when the variation among the respective-cylinder correction values of the cylinders (#1 to #4) is small. an air-fuel ratio feedback correction value, which is updated such that a difference between an exhaust air-fuel ratio, which is detected by an air-fuel ratio sensor installed in an exhaust passage , and a target air-fuel ratio approaches zero, an air-fuel ratio learning value, which is updated based on the air-fuel ratio feedback correction value such that an amount of correction of the fuel injection amount according to the air-fuel ratio feedback correction value approaches zero, and respective-cylinder correction values, which are set for the respective cylinders to differentiate the air fuel ratios of the cylinders (#1 to #4), and
A branched polyester formed by an acid component, a diol component and a polyol component, wherein the acid component comprises an amino dicarboxylic acid of formula (I) wherein R 1 is hydrogen or a hydrocarbon having 1 to 20 carbon atoms, and wherein in the hydrocarbon one or more carbon atoms can be replaced by an oxygen, provided that the replaced carbon is not a primary carbon atom and in case of more than one oxygen replacing carbon atoms, at least two carbon atoms are between adjacent oxygen atoms, wherein the diol component comprises a diol, wherein the polyol component comprises a polyol having at least three hydroxyl groups, preferably a triol or tetrol, more preferably a triol; and wherein the acid component forms carboxylic acid ester groups with the diol component and the polyol component and the dashed lines indicate the bondage to the diol or the polyol via the commonly shared oxygen, characterized in that the molar ratio of diol component and polyol component is in the range from 2:1 to 1:2. wherein R 1 is hydrogen or a hydrocarbon having 1 to 20 carbon atoms, and wherein in the hydrocarbon one or more carbon atoms can be replaced by an oxygen, provided that the replaced carbon is not a primary carbon atom and in case of more than one oxygen replacing carbon atoms, at least two carbon atoms are between adjacent oxygen atoms, wherein the diol component comprises a diol, wherein the polyol component comprises a polyol having at least three hydroxyl groups, preferably a triol or tetrol, more preferably a triol; and wherein the acid component forms carboxylic acid ester groups with the diol component and the polyol component and the dashed lines indicate the bondage to the diol or the polyol via the commonly shared oxygen, characterized in that the molar ratio of diol component and polyol component is in the range from 2:1 to 1:2.