mhurhangee/ep-ind-claims huggingface dataset:
A portable electronic device, comprising: a communication unit configured to acquire information from a roadside device; a display; a storage; and a controller configured to acquire position information of the roadside device based on the information acquired by the communication unit, and to cause the storage to store the acquired position information of the road side device as position information of the portable electronic device at a time of acquiring the information, wherein the controller is configured to cause the display to display the position information of the portable electronic device satisfying a predetermined condition in a manner different from position information of the portable electronic device not satisfying the predetermined condition, wherein the controller is configured to determine that the predetermined condition is satisfied when the position information of the portable electronic device is outside of a first predetermined range or, alternatively, when the position information of the portable electronic device is within a second predetermined range; and wherein the controller is configured to cause the display to display position information satisfying the predetermined condition and position information not satisfying the predetermined condition differently by changing a color or a blinking of the displayed position information. a communication unit configured to acquire information from a roadside device; a display; a storage; and a controller configured to acquire position information of the roadside device based on the information acquired by the communication unit, and to cause the storage to store the acquired position information of the road side device as position information of the portable electronic device at a time of acquiring the information, wherein the controller is configured to cause the display to display the position information of the portable electronic device satisfying a predetermined condition in a manner different from position information of the portable electronic device not satisfying the predetermined condition, wherein the controller is configured to determine that the predetermined condition is satisfied when the position information of the portable electronic device is outside of a first predetermined range or, alternatively, when the position information of the portable electronic device is within a second predetermined range; and wherein the controller is configured to cause the display to display position information satisfying the predetermined condition and position information not satisfying the predetermined condition differently by changing a color or a blinking of the displayed position information.
A beverage machine, in particular a coffee machine, comprising at least one line, a container, a milk frother, a control device, a signal receiver as well as comprising at least one sensor for detecting the temperature, which is embodied for wireless data transfer, characterized in that - the temperature sensor is embodied as RFID chip and is arranged directly at a frothing head of the milk frother for detecting a milk temperature, - the temperature sensor is able to measure the temperature, which is currently present at that location and to transfer it directly to the control device, which thereupon adjusts the frothing process. - the temperature sensor is embodied as RFID chip and is arranged directly at a frothing head of the milk frother for detecting a milk temperature, - the temperature sensor is able to measure the temperature, which is currently present at that location and to transfer it directly to the control device, which thereupon adjusts the frothing process.
A process for preparing glucaric acid or lactone thereof, the process comprising: reacting glucose with oxygen in the presence of heterogeneous oxidation catalyst comprising Pt to convert at least a portion of the glucose to glucaric acid or lactone thereof, wherein the pH of the reaction mixture is less than 7, wherein the reaction is conducted in the substantial absence of added base, wherein the reaction mixture is maintained at a temperature from 70°C to 150°C and under a partial pressure of oxygen that is at least 60 psia (414 kPa), and wherein the heterogeneous oxidation catalyst comprises a catalyst support selected from the group consisting of carbon, alumina, silica, titania, zirconia, and zeolite. reacting glucose with oxygen in the presence of heterogeneous oxidation catalyst comprising Pt to convert at least a portion of the glucose to glucaric acid or lactone thereof, wherein the pH of the reaction mixture is less than 7, wherein the reaction is conducted in the substantial absence of added base, wherein the reaction mixture is maintained at a temperature from 70°C to 150°C and under a partial pressure of oxygen that is at least 60 psia (414 kPa), and wherein the heterogeneous oxidation catalyst comprises a catalyst support selected from the group consisting of carbon, alumina, silica, titania, zirconia, and zeolite.
A method of controlling a modular multilevel converter, MMC, of a full-bridge or mixed arm type in case of a DC fault, the method including: determining (102, 104) whether a magnitude of a DC pole voltage (Udp) of the MMC has fallen below an upper voltage threshold (Ud_max_lim), and if determining that the DC pole voltage has fallen below the upper voltage threshold: reducing both a magnitude of an AC active current reference (IVD_ORD) and a magnitude of a DC voltage reference (UDC_REF) for the MMC based on the DC pole voltage, wherein reducing the magnitude of the AC active current reference includes setting the magnitude of the AC active current reference proportional to the DC pole voltage, and wherein reducing the magnitude of the DC voltage reference includes setting the magnitude of the DC voltage reference proportional to the reduced magnitude of the AC active current reference by scaling the magnitude of the AC active current reference by dividing it with a constant upper limit value (IVD_max_lim) thereby providing a modified value of the AC active current reference (IVD_MOD), and multiplying the modified value of the AC active current reference with a steady state DC voltage reference to generate the DC voltage reference with reduced magnitude. determining (102, 104) whether a magnitude of a DC pole voltage (Udp) of the MMC has fallen below an upper voltage threshold (Ud_max_lim), and if determining that the DC pole voltage has fallen below the upper voltage threshold: reducing both a magnitude of an AC active current reference (IVD_ORD) and a magnitude of a DC voltage reference (UDC_REF) for the MMC based on the DC pole voltage, wherein reducing the magnitude of the AC active current reference includes setting the magnitude of the AC active current reference proportional to the DC pole voltage, and wherein reducing the magnitude of the DC voltage reference includes setting the magnitude of the DC voltage reference proportional to the reduced magnitude of the AC active current reference by scaling the magnitude of the AC active current reference by dividing it with a constant upper limit value (IVD_max_lim) thereby providing a modified value of the AC active current reference (IVD_MOD), and multiplying the modified value of the AC active current reference with a steady state DC voltage reference to generate the DC voltage reference with reduced magnitude.
A method for determining a set of optimal operating parameters O for a pumping plant that is configured to pump a fluid medium by a set of multiple pumps (3a-3c) connected in parallel, the method comprising: • determining, from the set of pumps (3a-3c), a set of K possible scenarios S1-K, wherein each scenario indicates, for each pump (3a-3c) in the set, whether the pump (3a-3c) is running or not running; • optimizing, for each scenario S1-K, a set of operating parameters O comprising operating parameters (4a-4c) of the pumps (3a-3c) that are running according to this scenario S1-K, wherein the goal of the optimization is that all running pumps (3a-3c) together bring a given input mass flow M in of the medium from a given input pressure p in to a given output pressure p out while minimizing the total power consumption P of all running pumps (3a-3c), and assigning the found minimum power consumption P min,S1-K and the corresponding optimal operating parameters O opt,S1-K to the scenario S1-K; • determining, from the set of scenarios S1-K, the scenario S* with the lowest power consumption P min,S*; and • determining the sought optimal operating parameters O to be: running the pumps (3a-3c) that are to be run according to the scenario S* at the operating parameters O opt,S* found for the scenario S*, and not running the pumps (3a-3c) that are not to be run according to the scenario S*, characterized in that the operating parameters O further comprise a set point for a throttling valve that is connected in the plant downstream of the set of pumps (3a-3c). • determining, from the set of pumps (3a-3c), a set of K possible scenarios S1-K, wherein each scenario indicates, for each pump (3a-3c) in the set, whether the pump (3a-3c) is running or not running; • optimizing, for each scenario S1-K, a set of operating parameters O comprising operating parameters (4a-4c) of the pumps (3a-3c) that are running according to this scenario S1-K, wherein the goal of the optimization is that all running pumps (3a-3c) together bring a given input mass flow M in of the medium from a given input pressure p in to a given output pressure p out while minimizing the total power consumption P of all running pumps (3a-3c), and assigning the found minimum power consumption P min,S1-K and the corresponding optimal operating parameters O opt,S1-K to the scenario S1-K; • determining, from the set of scenarios S1-K, the scenario S* with the lowest power consumption P min,S*; and • determining the sought optimal operating parameters O to be: running the pumps (3a-3c) that are to be run according to the scenario S* at the operating parameters O opt,S* found for the scenario S*, and not running the pumps (3a-3c) that are not to be run according to the scenario S*,
A blade tip clearance system comprising: a first control ring having a first coefficient of thermal expansion and a first thermal response rate; a second control ring located radially outward of and operatively connected to the first control ring, the second control ring having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion and a second thermal response rate that is different from the first thermal response rate; wherein thermal expansion and contraction of the first and the second control rings are configured to control a radial position of the blade tip clearance system relative to a rotating blade component; further comprising a carrier that radially centers the first and the second control rings, further comprising a support connected to the carrier to center the carrier relative to a case; and characterised in that the support comprises a support spline slot, the carrier comprises a carrier spline tab, and the support spline slot is slidably engaged to the carrier spline tab, wherein the first control ring comprises a spline tab, and the support spline slot is slidably engaged to the spline tab of the first control ring, and wherein the second control ring comprises a spline tab, and the support spline slot is slidably engaged to the spline tab of the second control ring. a first control ring having a first coefficient of thermal expansion and a first thermal response rate; a second control ring located radially outward of and operatively connected to the first control ring, the second control ring having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion and a second thermal response rate that is different from the first thermal response rate; wherein thermal expansion and contraction of the first and the second control rings are configured to control a radial position of the blade tip clearance system relative to a rotating blade component; further comprising a carrier that radially centers the first and the second control rings, further comprising a support connected to the carrier to center the carrier relative to a case; and characterised in that the support comprises a support spline slot, the carrier comprises a carrier spline tab, and the support spline slot is slidably engaged to the carrier spline tab, wherein the first control ring comprises a spline tab, and the support spline slot is slidably engaged to the spline tab of the first control ring, and wherein the second control ring comprises a spline tab, and the support spline slot is slidably engaged to the spline tab of the second control ring.
A method comprising: receiving, with a software defined network, SDN, controller, state information from optical components of an optical transport system having a plurality of interconnected packet-optical transport devices; applying, with an analytics engine of the SDN controller, a set of rules to identify a failure of any of the optical components, the identifying the failure being in in response to determining that a combined likelihood of failure for a plurality of the optical components along a common path through a network exceeds a threshold; computing, with the SDN controller and in response to identifying the failure, at least one updated path through a routing and switching network having a plurality of interconnected layer three, L3, routing components and layer two, L2, switching components for communicating packet-based network traffic; and responsive to the updated path, configuring, with the SDN controller, the packet-optical transport devices to operate at particular wavelengths based upon changes in bandwidth requirements at each of the L3 routing components due to the updated path. receiving, with a software defined network, SDN, controller, state information from optical components of an optical transport system having a plurality of interconnected packet-optical transport devices; applying, with an analytics engine of the SDN controller, a set of rules to identify a failure of any of the optical components, the identifying the failure being in in response to determining that a combined likelihood of failure for a plurality of the optical components along a common path through a network exceeds a threshold; computing, with the SDN controller and in response to identifying the failure, at least one updated path through a routing and switching network having a plurality of interconnected layer three, L3, routing components and layer two, L2, switching components for communicating packet-based network traffic; and responsive to the updated path, configuring, with the SDN controller, the packet-optical transport devices to operate at particular wavelengths based upon changes in bandwidth requirements at each of the L3 routing components due to the updated path.
A method of decreasing radio link failure in challenging mobility scenarios for a user equipment, UE, device working in a cellular telecommunication network with a base station of each cell, the method comprises measuring (100, 900) signal conditions for serving cell and neighbouring cells periodically, characterised in that a timer is started and a predefined time to trigger, TTT, is assigned to be awaited before reporting the measured signal conditions; estimating (106, 902) channel variations and comparing the estimate with a threshold value such that, when channel variations are determined to exceed a channel variations threshold, performing an accelerated procedure comprising predicting whether likelihood of handover when the next scheduled measurement instant occurs when the TTT has lapsed exceeds a threshold based on the signal measurements; and estimating a delay of negotiating transmission for measurement reporting, such that when handover is predicted, the accelerated procedure comprises scheduling a measurement instant at a time before the TTT, where the time is equal to the estimated delay; whereafter the procedure directly at the scheduled measurement instant proceeds with sending (202, 312, 400, 910) an initial measurement report request.
An immunogenic composition comprising at least two different staphylococcal coagulase Domains 1-2, wherein each of the at least two Domains 1-2 is at least 80% identical in sequence to a Domains 1-2 of SEQ ID NOs: 33-41 and wherein at least one of the Domain 1-2 is comprised in a less than full-length coagulase protein that lacks all of a Linker Domain (L Domain), Repeat Domain (R Domain), or Fibrinogen Binding Domain (Fgb Domain).
A recombinant camelina plant or cell comprising one or more polynucleotides encoding a Δ6-desaturase, a Δ6-elongase and a Δ5-desaturase operably linked with one or more regulatory sequences; wherein the recombinant camelina plant or cell comprises polynucleotide sequences for all three enzymes; wherein the Δ6-desaturase comprises an amino acid sequence having at least 50% identity to SEQ ID NO:2 or SEQ ID NO:20; and wherein the recombinant camelina plant or cell is capable of producing eicosapentaenoic acid.
A method for reducing the high sulphur content in liquid fossil fuels named Heavy Fuel Oil, comprising: a) a step of heating and mixing the fuel with water; b) an ozonation step in which, while maintaining agitation, ozone is added as an oxidising agent to the fuel at the temperature reached in a); c) a step of mixing the fuel obtained in b) with a liquid catalyst and, optionally, water, at the temperature reached in a), by static mixer; d) a stage of sonication (3,4) by applying ultrasound to the mixture obtained in c) for the oxidation of the sulphur compounds and emulsion of the fuel; e) a step of extraction of the oxidised sulphur compounds obtained in d) by means of a polar aprotic solvent and density difference; f) a step of recovering the liquid catalyst, the extraction solvent and, optionally, the water used in the process, and by means of centrifugation; g) a step of obtaining the fuel having a reduced sulphur content. a) a step of heating and mixing the fuel with water; b) an ozonation step in which, while maintaining agitation, ozone is added as an oxidising agent to the fuel at the temperature reached in a); c) a step of mixing the fuel obtained in b) with a liquid catalyst and, optionally, water, at the temperature reached in a), by static mixer; d) a stage of sonication (3,4) by applying ultrasound to the mixture obtained in c) for the oxidation of the sulphur compounds and emulsion of the fuel; e) a step of extraction of the oxidised sulphur compounds obtained in d) by means of a polar aprotic solvent and density difference; f) a step of recovering the liquid catalyst, the extraction solvent and, optionally, the water used in the process, and by means of centrifugation; g) a step of obtaining the fuel having a reduced sulphur content.
An elevator management system, characterised by comprising: an elevator system configured to control at least one elevator car (103a, 103b, 103n) and to transmit a status message indicating status data of the at least one elevator car (103a, 103b, 103n); and a service provider controller configured to determine a current operating mode of the at least one elevator car (103a, 103b, 103n) based on the status message and to assign the at least one elevator car to a current status group (304a, 304b, 304c) among a plurality of different status groups (304a, 304b, 304c) based on the current operating mode. an elevator system configured to control at least one elevator car (103a, 103b, 103n) and to transmit a status message indicating status data of the at least one elevator car (103a, 103b, 103n); and a service provider controller configured to determine a current operating mode of the at least one elevator car (103a, 103b, 103n) based on the status message and to assign the at least one elevator car to a current status group (304a, 304b, 304c) among a plurality of different status groups (304a, 304b, 304c) based on the current operating mode.
A device having: - a processor which is set up to run an operating system and processes (25a, 25b) on the operating system and - an interface which is set up to couple to a security module, wherein - the operating system has an access control module that is set up to monitor calls for the processes (25a, 25b) based on one or multiple authorizations and - the operating system is set up to configure the one or multiple authorizations by means of the security module, characterized in that - the access control module is created with a discrete access control and a freely configurable access control which provides the interface for coupling the security module, - each of the processes (25a, 25b) is executed in one or multiple containers (27a, 27b) and assigned thereto in such a manner that each container (27a, 27b) isolates the assigned process or processes (25a, 25b) and - a container-specific implementation of the interface is provided in which the interface exhibits multiple modules (38a, 38b) each of which provide a container-specific configuration, wherein the container-specific configurations differ and are each assigned to one of the containers (27a, 27b). - a processor which is set up to run an operating system and processes (25a, 25b) on the operating system and - an interface which is set up to couple to a security module, - the operating system has an access control module that is set up to monitor calls for the processes (25a, 25b) based on one or multiple authorizations and - the operating system is set up to configure the one or multiple authorizations by means of the security module, - the access control module is created with a discrete access control and a freely configurable access control which provides the interface for coupling the security module, - each of the processes (25a, 25b) is executed in one or multiple containers (27a, 27b) and assigned thereto in such a manner that each container (27a, 27b) isolates the assigned process or processes (25a, 25b) and - a container-specific implementation of the interface is provided in which the interface exhibits multiple modules (38a, 38b) each of which provide a container-specific configuration, wherein the container-specific configurations differ and are each assigned to one of the containers (27a, 27b).
Magnetic core for conducting a magnetic field, the magnetic core having at least one contact insertion hole for inserting a plug contact, which penetrates the magnetic core at least partially, the contact insertion hole extending in an insertion direction into the magnetic core and comprising at least two holding flaps (24, 26) which are stacked with respect to the insertion direction and extend substantially perpendicular to the insertion direction of the plug contact.