mhurhangee/patent-ind-claim-en huggingface dataset:
A database-as-a-service system , comprising: an auto-scaling module configured to automatically scale container sizes of containers in database servers for subsequent billing intervals based on changes in estimated resource demand,; and at least one hardware processor configured to execute computer-executable instructions in a memory, the instructions executed to enable the auto scaling module, the system further comprising a resource demand estimator configured to estimate resource demands that warrant a larger container or a smaller container, wherein the resource demand estimator is configured to transform telemetry from the database servers into signals used to estimate the resource demands of multiple workloads of the database servers; and wherein the resource demand estimator is configured as a rules-based logic having one or more thresholds for each of the signals to determine tenant state in terms of each signal and wherein each rule combines the states obtained from each signal to determine the overall resource demand; wherein container sizes are assigned to resource utilization values; and wherein the container sizes are constrained to change by steps. an auto-scaling module configured to automatically scale container sizes of containers in database servers for subsequent billing intervals based on changes in estimated resource demand,; and at least one hardware processor configured to execute computer-executable instructions in a memory, the instructions executed to enable the auto scaling module, the system further comprising a resource demand estimator configured to estimate resource demands that warrant a larger container or a smaller container, wherein the resource demand estimator is configured to transform telemetry from the database servers into signals used to estimate the resource demands of multiple workloads of the database servers; and wherein the resource demand estimator is configured as a rules-based logic having one or more thresholds for each of the signals to determine tenant state in terms of each signal and wherein each rule combines the states obtained from each signal to determine the overall resource demand; wherein container sizes are assigned to resource utilization values; and wherein the container sizes are constrained to change by steps.
An optical phased array comprising: a light injector ; a first splitter (S1) connected to the light injector; a first phase shifter (PS1) connected to the first splitter; a plurality of waveguides (WG1, WG2a, WG2b, WG3a, WG3b, WG3c, WG3d, WG4a, WG4b, WG4c, WG4d, WG4e, WG4f, WG4g, WG4h) connected to the first splitter, portions of the plurality of waveguides being connected to the first splitter via the first phase shifter; an antenna array connected to the plurality of waveguides; and a single mode filter (F1, F2, F3, F4, F5, F6, F7, F8) provided in each of the plurality of waveguides, wherein one waveguide (WG1) and a first photodetector are connected to a first side of the first splitter through which light enters and exits, wherein two waveguides (WG2a, WG2b) are connected to a second side of the first splitter and diverge from the first splitter, wherein the first phase shifter is provided on one of the two waveguides, and wherein the first photodetector comprises a first light receiving element and a second light receiving element respectively provided on opposite sides of the one waveguide. a light injector ; a first splitter (S1) connected to the light injector; a first phase shifter (PS1) connected to the first splitter; a plurality of waveguides (WG1, WG2a, WG2b, WG3a, WG3b, WG3c, WG3d, WG4a, WG4b, WG4c, WG4d, WG4e, WG4f, WG4g, WG4h) connected to the first splitter, portions of the plurality of waveguides being connected to the first splitter via the first phase shifter; an antenna array connected to the plurality of waveguides; and a single mode filter (F1, F2, F3, F4, F5, F6, F7, F8) provided in each of the plurality of waveguides, wherein one waveguide (WG1) and a first photodetector are connected to a first side of the first splitter through which light enters and exits, wherein two waveguides (WG2a, WG2b) are connected to a second side of the first splitter and diverge from the first splitter, wherein the first phase shifter is provided on one of the two waveguides, and wherein the first photodetector comprises a first light receiving element and a second light receiving element respectively provided on opposite sides of the one waveguide.
Oscillator-based sensor interface circuit comprising - an oscillator having an input and arranged for oscillating at a frequency determined by a signal applied to said input, - switching means arranged for switching between at least two signals to be applied to said oscillator via said input, at least one of said signals being an electrical signal representative of an electrical quantity, said electrical quantity being a converted physical quantity , - a counter arranged to count a number of cycles or half cycles produced by said oscillator when receiving from an output of said oscillator a signal derived from a first signal of said at least two signals applied to said oscillator, - control logic arranged to control said switching means and to derive a control output signal from a first number of counted oscillator cycles when said first signal is applied to said oscillator and a further number of counted oscillator cycles when another signal of said at least two signals different from said first signal is applied to said oscillator, - a feedback element arranged for converting a representation of said control output signal into a feedback signal used directly or indirectly to maintain a given relation between said first number of counted oscillator cycles when said first signal is applied to said oscillator and said further number of counted oscillator cycles when said other signal different from said first signal is applied to said oscillator. - an oscillator having an input and arranged for oscillating at a frequency determined by a signal applied to said input, - switching means arranged for switching between at least two signals to be applied to said oscillator via said input, at least one of said signals being an electrical signal representative of an electrical quantity, said electrical quantity being a converted physical quantity , - a counter arranged to count a number of cycles or half cycles produced by said oscillator when receiving from an output of said oscillator a signal derived from a first signal of said at least two signals applied to said oscillator, - control logic arranged to control said switching means and to derive a control output signal from a first number of counted oscillator cycles when said first signal is applied to said oscillator and a further number of counted oscillator cycles when another signal of said at least two signals different from said first signal is applied to said oscillator, - a feedback element arranged for converting a representation of said control output signal into a feedback signal used directly or indirectly to maintain a given relation between said first number of counted oscillator cycles when said first signal is applied to said oscillator and said further number of counted oscillator cycles when said other signal different from said first signal is applied to said oscillator.
A peptide ligand specific for human Kallikrein comprising a polypeptide comprising at least three reactive groups, separated by at least two loop sequences, and a molecular scaffold which forms covalent bonds with the reactive groups of the polypeptide such that at least two polypeptide loops are formed on the molecular scaffold, wherein the loops of the peptide ligand comprise three, four or five, but less than six, amino acids, and wherein said polypeptide comprises the amino acid sequence FPYR.
An automated analyzer for dispensing and causing a sample and a reagent to react with each other in a reaction container to measure a reacted mixed solution, the automated analyzer comprising: a plurality of dispensing probes dispensing a reagent or a sample to be analyzed into the reaction container , a supply port storing conductive liquid with which each of the plurality of dispensing probe comes into contact, a conductive-liquid supply unit (231, 232, 235-238) supplying the conductive liquid , through a flow path connected to the supply port , to the supply port , a liquid-surface contact determination unit installed in each of the plurality of dispensing probes , and determining a contact of a leading end of each of the plurality of dispensing probes with a liquid surface of the conductive liquid , based on a change in capacitance between the leading end and a housing (243; 260; 270), the automated analyzer being characterized by a charge accumulation unit (240; 257; 267) provided between the conductive liquid and the housing (243; 260; 270), and having a capacitance (Cs) that is equal to or higher than a capacitance (Cp1, Cp2) of each of the plurality of dispensing probes . a plurality of dispensing probes dispensing a reagent or a sample to be analyzed into the reaction container , a supply port storing conductive liquid with which each of the plurality of dispensing probe comes into contact, a conductive-liquid supply unit (231, 232, 235-238) supplying the conductive liquid , through a flow path connected to the supply port , to the supply port , a liquid-surface contact determination unit installed in each of the plurality of dispensing probes , and determining a contact of a leading end of each of the plurality of dispensing probes with a liquid surface of the conductive liquid , based on a change in capacitance between the leading end and a housing (243; 260; 270),
Installation box for electrical/electronic installations, with a box body serving to accommodate at least one electrical/electronic component, comprising a base , a surrounding circumferential wall , and a mounting opening , said box body comprising at least one pipe inlet, spanned by a soft plastic membrane (7, 7.1) for introducing the end section of an installation pipe, wherein the soft plastic membrane (7, 7.1) comprises, at a position provided for the introduction of the installation pipe, a beading (8, 8.1) formed by a material covering, and an insertion region (10, 10.1) enclosed by an insertion contour and by the beading, which is separated from the insertion contour (13, 13.1), said region (10, 10.1), when in use, comprises a cross-section surface which is smaller than the cross-section surface of the installation pipe which is to be introduced, and carries an insertion handle (9, 9.1) for removing the insertion region (10, 10.1), wherein the insertion handle (9, 9.1) is configured as a web with a concave cambered actuation surface , wherein the insertion handle (9, 9.1) is configured to receive an insertion force for introducing the insertion contour (13, 13.1) engaging transversely, characterised in that the insertion contour is provided by a thinning of material, and that the actuation surface of the insertion handle (9, 9.1) is offset eccentrically, in relation to the insertion region (10, 10.1) enclosed by the beading (8, 8.1), into that section of the insertion region (10, 10.1) towards which the concave contour of the insertion handle (9, 9.1) faces, and the insertion handle extends as far as the insertion contour (13, 13.1), and that the web is supported, on its side opposite the actuation surface , by at least one support structure on the outer surface of the insertion region (10, 10.1) of the soft plastic membrane (7, 7.1).
A cap remover , comprising: a cap remover body having a proximal end , a distal end , and an interior wall defining a cavity within the proximal end of the cap remover body ; a protrusion extending inwardly from the interior wall of the cap remover body into the cavity ; and a flange provided adjacent the distal end of the cap remover body , wherein the cavity is sized to accommodate a cap disposed on a needle of a medical injector at least partially therein, and wherein with the cap received within the cavity , the cap remover may remove the cap from the medical injector , characterized in that an opening is defined through a a sidewall of the cap remover body , the sidewall extending between the proximal end and the distal end of the cap remover body and the opening being configured to assist a user in simultaneously removing the cap remover and the cap . a cap remover body having a proximal end , a distal end , and an interior wall defining a cavity within the proximal end of the cap remover body ; a protrusion extending inwardly from the interior wall of the cap remover body into the cavity ; and a flange provided adjacent the distal end of the cap remover body , wherein the cavity is sized to accommodate a cap disposed on a needle of a medical injector at least partially therein, and wherein with the cap received within the cavity , the cap remover may remove the cap from the medical injector , characterized in that an opening is defined through a a sidewall of the cap remover body , the sidewall extending between the proximal end and the distal end of the cap remover body and the opening being configured to assist a user in simultaneously removing the cap remover and the cap .
A method comprising: receiving, by an access point , AP, of a wireless local area network, WLAN, prior to association of a wireless device with the AP , a request from the wireless device , the request requesting any Extensible Authentication Protocol, EAP, method supported by a public land mobile network , PLMN, accessible via the AP ; and transmitting by the AP , prior to association of the wireless device with the AP , a first identifier indicative of a first EAP method supported by the PLMN . receiving, by an access point , AP, of a wireless local area network, WLAN, prior to association of a wireless device with the AP , a request from the wireless device , the request requesting any Extensible Authentication Protocol, EAP, method supported by a public land mobile network , PLMN, accessible via the AP ; and transmitting by the AP , prior to association of the wireless device with the AP , a first identifier indicative of a first EAP method supported by the PLMN .
Method for determining an X-Y-Z reference coordinate of a workpiece arranged in a machine tool, wherein an image of the workpiece is first created with a camera device of the machine tool and is then displayed on a display device , wherein an X-Y display coordinate is selected and entered by a user via the displayed image, wherein the Z reference coordinate is then determined in an automated manner, and wherein, based on the Z reference coordinate determined in an automated manner and the X-Y display coordinate entered by the user, the X-Y-Z reference coordinate is determined, characterised in that , in order to determine the X-Y-Z reference coordinate on the basis of the Z reference coordinate determined in an automated manner and the X-Y display coordinate entered by the user, an X-Y-Z starting coordinate is first calculated, wherein a measuring device of the machine tool is displaced to the X-Y-Z starting coordinate in an automated manner, the X-Y-Z reference coordinate of the workpiece is then determined by the measuring device by means of a suitable determination method, based on the position of the measuring device defined by the X-Y-Z starting coordinate , wherein a touch-sensitive measuring probe is used as the measuring device and, in order to determine the Z coordinate, the measuring probe is displaced through the region detectable by the camera device in the direction of a target point specified by the user, until the measuring probe touches the workpiece .
A walking training system comprising a walking assistance apparatus configured to be mounted on a leg part of a trainee and assist a walking operation of repeating a supporting leg condition and a lifted leg condition of the leg part, the walking assistance apparatus comprising stimulus applying means that is configured to apply a stimulus to the leg part on which the walking assistance apparatus is mounted, wherein the stimulus is one of a vibrational stimulus, an electrical stimulus and a magnetic stimulus for performing a treatment for relieving a paralysis of the leg part; and state detection means that is configured to detect whether the leg part on which the walking assistance apparatus is mounted is in the supporting leg condition or the lifted leg condition, wherein: the stimulus applying means is configured to constantly apply a stimulus to the leg part by applying a first stimulus to the leg part when the state detection means has detected that the leg part on which the walking assistance apparatus is mounted is in the lifted leg condition, and applying a second stimulus that is smaller than the first stimulus when the state detection means has detected that the leg part on which the walking assistance apparatus is mounted is in the supporting leg condition, wherein the second stimulus is set to not affect the walking operation. the stimulus applying means is configured to constantly apply a stimulus to the leg part by applying a first stimulus to the leg part when the state detection means has detected that the leg part on which the walking assistance apparatus is mounted is in the lifted leg condition, and applying a second stimulus that is smaller than the first stimulus when the state detection means has detected that the leg part on which the walking assistance apparatus is mounted is in the supporting leg condition, wherein the second stimulus is set to not affect the walking operation.
A hot melt adhesive composition comprising, - at least 10% by weight of at least one metallocene catalyzed propylene-based homopolymer which has a melt viscosity higher than 8,000 mPa·s (8,000 cPs) at 190°C, - 1 to 30% by weight of at least one metallocene catalyzed propylene-based homopolymer which has a melt viscosity lower than 8,000 mPa·s (8,000 cPs) at 190°C, - 10 to 25% by weight of at least one ethylene-based copolymer, comprising ethylene and a comonomer selected from vinyl acetate, octene, methyl acrylate, ethyl acrylate, vinyl alcohol, n-butyl acrylate, acrylic acid, n-hexyl acrylate, methyl-methacrylate and 2-ethylhexyl acrylate, - 0 to 4% by weight of at least one polyolefin grafted with maleic anhydride, - at least 20% by weight of at least one tackifier resin, - 20 to 40% by weight of at least one wax, - 0 to 5% by weight of at least one stabilizer, wherein the percentages are based on the weight of the total composition. - at least 10% by weight of at least one metallocene catalyzed propylene-based homopolymer which has a melt viscosity higher than 8,000 mPa·s (8,000 cPs) at 190°C, - 1 to 30% by weight of at least one metallocene catalyzed propylene-based homopolymer which has a melt viscosity lower than 8,000 mPa·s (8,000 cPs) at 190°C, - 10 to 25% by weight of at least one ethylene-based copolymer, comprising ethylene and a comonomer selected from vinyl acetate, octene, methyl acrylate, ethyl acrylate, vinyl alcohol, n-butyl acrylate, acrylic acid, n-hexyl acrylate, methyl-methacrylate and 2-ethylhexyl acrylate, - 0 to 4% by weight of at least one polyolefin grafted with maleic anhydride, - at least 20% by weight of at least one tackifier resin, - 20 to 40% by weight of at least one wax, - 0 to 5% by weight of at least one stabilizer,
A bot characteristic detection method, comprising: obtaining a first dynamic behavior file and a second dynamic behavior file, wherein the first dynamic behavior file is a behavior file resulting from dynamic behavior detection performed on a malicious file in a first sandbox, and the second dynamic behavior file is a behavior file resulting from dynamic behavior detection performed on the malicious file in a second sandbox; and determining a bot characteristic of the malicious file based on a common characteristic of the first dynamic behavior file and the second dynamic behavior file, wherein the first dynamic behavior file comprises a first session packet, the second dynamic behavior file comprises a second session packet, a destination Internet Protocol, IP, address of the first session packet is the same as a destination IP address of the second session packet, and a destination port of the first session packet is the same as a destination port of the second session packet; and the determining a bot characteristic of the malicious file based on a common characteristic of the first dynamic behavior file and the second dynamic behavior file comprises: determining the bot characteristic of the malicious file based on a common characteristic of the first session packet and the second session packet. obtaining a first dynamic behavior file and a second dynamic behavior file, wherein the first dynamic behavior file is a behavior file resulting from dynamic behavior detection performed on a malicious file in a first sandbox, and the second dynamic behavior file is a behavior file resulting from dynamic behavior detection performed on the malicious file in a second sandbox; and determining a bot characteristic of the malicious file based on a common characteristic of the first dynamic behavior file and the second dynamic behavior file, wherein the first dynamic behavior file comprises a first session packet, the second dynamic behavior file comprises a second session packet, a destination Internet Protocol, IP, address of the first session packet is the same as a destination IP address of the second session packet, and a destination port of the first session packet is the same as a destination port of the second session packet; and the determining a bot characteristic of the malicious file based on a common characteristic of the first dynamic behavior file and the second dynamic behavior file comprises: determining the bot characteristic of the malicious file based on a common characteristic of the first session packet and the second session packet.