mhurhangee/ep-ind-claims huggingface dataset:
A method for executing a process on a device, the device comprising one or more processors for executing the process and a memory, wherein the process has an associated first type of privilege, characterized in that the method comprises: obtaining a portion of the memory for use by the process or for use by a further process being created by the process, wherein the portion of the memory is identified as both writable and executable memory and also has an associated second type of privilege that is different from the first type of privilege; wherein the first type of privilege and/or the second type of privilege allows and/or prohibits one or more of: (a) opening a file; (b) performing one or more predetermined system calls; (c) reading a file; (d) writing to a file; (e) creating a communications connection. obtaining a portion of the memory for use by the process or for use by a further process being created by the process, wherein the portion of the memory is identified as both writable and executable memory and also has an associated second type of privilege that is different from the first type of privilege; wherein the first type of privilege and/or the second type of privilege allows and/or prohibits one or more of: (a) opening a file; (b) performing one or more predetermined system calls; (c) reading a file; (d) writing to a file; (e) creating a communications connection.
A system for aerobic fermentation comprising: a vessel; an aeration system comprising a gas sparger fluidly coupled to the vessel and positioned to introduce a compressed gas to an internal volume of the vessel; and a recirculation loop fluidly coupled to an outlet of the vessel, the recirculation loop comprising: at least one eductor fluidly coupled to an oxygen-containing gas source; at least one static mixer downstream of the at least one eductor; at least one heat exchanger downstream of the at least one eductor; and at least one distributor downstream of the at least one static mixer and the at least one heat exchanger, the at least one distributor fluidly coupled to the internal volume of the vessel; wherein when a fermentation composition is introduced to the vessel, the gas sparger and the recirculation loop provide mixing to the fermentation composition, and a stream of the fermentation composition passes from the vessel into the recirculation loop, through the at least one eductor, the at least one static mixer, and the at least one heat exchanger of the recirculation loop, and passes out of the at least one distributor back into the internal volume of the vessel. a vessel; an aeration system comprising a gas sparger fluidly coupled to the vessel and positioned to introduce a compressed gas to an internal volume of the vessel; and a recirculation loop fluidly coupled to an outlet of the vessel, the recirculation loop comprising: at least one eductor fluidly coupled to an oxygen-containing gas source; at least one static mixer downstream of the at least one eductor; at least one heat exchanger downstream of the at least one eductor; and at least one distributor downstream of the at least one static mixer and the at least one heat exchanger, the at least one distributor fluidly coupled to the internal volume of the vessel; at least one eductor fluidly coupled to an oxygen-containing gas source; at least one static mixer downstream of the at least one eductor; at least one heat exchanger downstream of the at least one eductor; and at least one distributor downstream of the at least one static mixer and the at least one heat exchanger, the at least one distributor fluidly coupled to the internal volume of the vessel; wherein when a fermentation composition is introduced to the vessel, the gas sparger and the recirculation loop provide mixing to the fermentation composition, and a stream of the fermentation composition passes from the vessel into the recirculation loop, through the at least one eductor, the at least one static mixer, and the at least one heat exchanger of the recirculation loop, and passes out of the at least one distributor back into the internal volume of the vessel.
A network entity, comprising: a transport layer interface configured to transport a plurality of application-specific data streams over a communication network; a network application protocol interface, NAPI, providing a protocol interface between an application layer (210, 107) and at least one of a network layer, a transport layer and a session layer according to an OSI reference model of the communication network, wherein the NAPI is configured to receive information about application-specific quality requirements with respect to reliability, throughput, latency and/or jitter requirements per application-specific data stream from the application layer of the communication network; and a processor, configured to schedule transmission of the plurality of application-specific data streams over the communication network according to a transport schedule which is based on the information about the application-specific quality requirements received via the NAPI from the application layer, wherein the NAPI is configured to provide billing information to the application layer based on the scheduled application-specific data streams. a transport layer interface configured to transport a plurality of application-specific data streams over a communication network; a network application protocol interface, NAPI, providing a protocol interface between an application layer (210, 107) and at least one of a network layer, a transport layer and a session layer according to an OSI reference model of the communication network, wherein the NAPI is configured to receive information about application-specific quality requirements with respect to reliability, throughput, latency and/or jitter requirements per application-specific data stream from the application layer of the communication network; and a processor, configured to schedule transmission of the plurality of application-specific data streams over the communication network according to a transport schedule which is based on the information about the application-specific quality requirements received via the NAPI from the application layer, wherein the NAPI is configured to provide billing information to the application layer based on the scheduled application-specific data streams.
A component mounter comprising: a head to which multiple nozzles are attached so as to revolve around a main axis of the head; a raising and lowering member provided with a pressing section at a specified position in a revolving direction; and a biasing member configured to bias the nozzles upwards, wherein, in a state with the nozzle positioned at the specified position, the nozzle is configured to be pressed downwards by the pressing section pressing a pressed section of the nozzle against a force of the biasing member, and when the nozzle is in a lower position, the nozzle is configured to be returned to a specified upper position due to the biasing member by the pressing section releasing pressing of the pressed section, further wherein a gap between adjacent of the pressed sections is large enough for the pressing section to pass through in a vertical direction, the nozzle includes a protruding section lower than the pressed section, the raising and lowering member includes a regulating section arranged lower than the pressing section and between the pressed section and the protruding section of the nozzle, and the regulating section has a size so as to be separated upwards from the protruding section when the pressing section is pressing the pressed section, and overlapping at least one of the protruding sections when viewed from above when the pressing section is positioned between the adjacent pressed sections. a head to which multiple nozzles are attached so as to revolve around a main axis of the head; a raising and lowering member provided with a pressing section at a specified position in a revolving direction; and a biasing member configured to bias the nozzles upwards, wherein, in a state with the nozzle positioned at the specified position, the nozzle is configured to be pressed downwards by the pressing section pressing a pressed section of the nozzle against a force of the biasing member, and when the nozzle is in a lower position, the nozzle is configured to be returned to a specified upper position due to the biasing member by the pressing section releasing pressing of the pressed section, further wherein a gap between adjacent of the pressed sections is large enough for the pressing section to pass through in a vertical direction, the nozzle includes a protruding section lower than the pressed section, the raising and lowering member includes a regulating section arranged lower than the pressing section and between the pressed section and the protruding section of the nozzle, and the regulating section has a size so as to be separated upwards from the protruding section when the pressing section is pressing the pressed section, and overlapping at least one of the protruding sections when viewed from above when the pressing section is positioned between the adjacent pressed sections.
An apparatus, comprising: a first monitoring unit configured to monitor if a notification of a first event is received from a first network resource; a first managing unit configured to manage the first network resource based on the first event if the first monitoring unit monitors that the notification of the first event is received; a second monitoring unit configured to monitor if a notification of a root event is received from a second network resource different from the first network resource; a second managing unit configured to manage the second network resource based on the root event if the second monitoring unit monitors that the notification of the root event is received; and a forwarding unit configured to forward the notification of the root event to the first network resource if the second monitoring unit monitors that the notification of the root event is received. a first monitoring unit configured to monitor if a notification of a first event is received from a first network resource; a first managing unit configured to manage the first network resource based on the first event if the first monitoring unit monitors that the notification of the first event is received; a second monitoring unit configured to monitor if a notification of a root event is received from a second network resource different from the first network resource; a second managing unit configured to manage the second network resource based on the root event if the second monitoring unit monitors that the notification of the root event is received; and a forwarding unit configured to forward the notification of the root event to the first network resource if the second monitoring unit monitors that the notification of the root event is received.
A method to wake a receive circuitry of a station before receipt of data by the station, the method comprising: generating and transmitting, by the station, a communication to trigger transmission of a data packet; switching to a receive active state of the station to receive a first acknowledgement responsive to the communication; receiving, by the station, the first acknowledgement; and entering an idle state of the station to reduce power consumption of the receive circuitry; receiving, by the station, a wake frame indicating a receive address and a duration for the data packet to be transmitted to the receive address, while the station is in the idle state; determining, by the station, that the receive address is associated with the station; waking, by the station, the receive circuitry of the station from the idle state to receive active state to receive the data packet in response to the wake frame; and receiving, by the station, the data packet. generating and transmitting, by the station, a communication to trigger transmission of a data packet; switching to a receive active state of the station to receive a first acknowledgement responsive to the communication; receiving, by the station, the first acknowledgement; and entering an idle state of the station to reduce power consumption of the receive circuitry; receiving, by the station, a wake frame indicating a receive address and a duration for the data packet to be transmitted to the receive address, while the station is in the idle state; determining, by the station, that the receive address is associated with the station; waking, by the station, the receive circuitry of the station from the idle state to receive active state to receive the data packet in response to the wake frame; and receiving, by the station, the data packet.
Device for coherent detection of data in an optical signal, called the payload signal, received on a first single-mode optical fiber (PLSOF), comprising: - a second single-mode optical fiber (LOSOF) that receives an optical oscillation signal, - a polarization management device that receives as input either, in a first case, the optical oscillation signal, or, in a second case, the payload signal, and that delivers as output two split signals (SLOV, SLOH; SPLVH, SPLH), on two single-mode optical guides, the coherent detection device being configured so that a set of three signals consisting of the two split signals and either, in the first case, the payload signal, or, in the second case, the oscillation signal, is presented to a single photodiode. - a second single-mode optical fiber (LOSOF) that receives an optical oscillation signal, - a polarization management device that receives as input either, in a first case, the optical oscillation signal, or, in a second case, the payload signal, and that delivers as output two split signals (SLOV, SLOH; SPLVH, SPLH), on two single-mode optical guides,
A clad welding method which includes generating an arc between a welding torch and a base material to form a molten pool, feeding a weld metal to the molten pool, moving the welding torch in a direction of welding while weaving the welding torch to form a weld bead, and forming a next weld bead sequentially in an area adjacent to the formed weld bead in such a manner as to superpose one end of the preceding weld bead which precedes, and other end of the succeeding weld bead which succeeds, the clad welding method being characterized by comprising: increasing a welding heat input by said weaving welding torch at a location where the one end of the preceding weld bead and the other end of the succeeding weld bead overlap, as compared with a welding heat input at a location where the preceding weld bead and the succeeding weld bead do not overlap, to produce a deep penetration portion involving locally deeper penetration, as compared with the depth of penetration at a location where the preceding weld bead and the succeeding weld bead do not overlap. increasing a welding heat input by said weaving welding torch at a location where the one end of the preceding weld bead and the other end of the succeeding weld bead overlap, as compared with a welding heat input at a location where the preceding weld bead and the succeeding weld bead do not overlap, to produce a deep penetration portion involving locally deeper penetration, as compared with the depth of penetration at a location where the preceding weld bead and the succeeding weld bead do not overlap.
A method for preparing a biodegradable polymer microparticle, comprising the steps of: (a) dissolving a biodegradable polyester-based polymer in DMSO (Dimethyl Sulfoxide) to form a solution; (b) spraying the solution in a hydrocarbon having 5 to 10 carbon atoms (C5 to C10) at a temperature of less than the melting point of DMSO to provide a frozen DMSO microparticle, wherein the hydrocarbon is not frozen at a temperature less than 0°C, and is phase-separated from DMSO, and is selected from the group consisting of pentane, hexane, heptane, octane, nonane, decane, petroleum ether, and mixtures thereof; (c) adding the microparticle in a salt aqueous solution to dissolve DMSO in the solution and remove DMSO; and (d) removing salt from the microparticle. (a) dissolving a biodegradable polyester-based polymer in DMSO (Dimethyl Sulfoxide) to form a solution; (b) spraying the solution in a hydrocarbon having 5 to 10 carbon atoms (C5 to C10) at a temperature of less than the melting point of DMSO to provide a frozen DMSO microparticle, wherein the hydrocarbon is not frozen at a temperature less than 0°C, and is phase-separated from DMSO, and is selected from the group consisting of pentane, hexane, heptane, octane, nonane, decane, petroleum ether, and mixtures thereof; (c) adding the microparticle in a salt aqueous solution to dissolve DMSO in the solution and remove DMSO; and (d) removing salt from the microparticle.
A method of making a coated plasma etch reactor component having one or more surfaces which are exposed to plasma in use during plasma etching of semiconductor substrates, the method comprising plasma spraying a coating onto at least one plasma exposed surface of the component to form a plasma sprayed coating having as-sprayed surface roughness characteristics that promote the adhesion of polymer deposits formed during etching of semiconductor substrates in the plasma etch reactor, wherein the coating is a ceramic or a polymeric material.
An electronic device that is functionally connectable with one or more displays, comprising: a processor formed by a plurality of cores; and a power control module (180; 400) functionally connected with the one or more displays, wherein the electronic device is configured such that: if only a single display is connected to the electronic device, the power control module executes at least part of one or more functions of the connected display in a first power consumption mode, and, if a plurality of displays is connected to the electronic device, executes at least part of one or more functions of the plurality of connected displays in a second power consumption mode; and wherein the electronic device is further configured to run one or more applications, each application being displayed on a respective display among the functionally connected displays; wherein the executing in the second power consumption mode includes setting, for each of the connected displays, a number of cores or a speed of a core assigned to that functionally connected display based on the application that is displayed by that display. a processor formed by a plurality of cores; and a power control module (180; 400) functionally connected with the one or more displays, wherein the electronic device is configured such that: if only a single display is connected to the electronic device, the power control module executes at least part of one or more functions of the connected display in a first power consumption mode, and, if a plurality of displays is connected to the electronic device, executes at least part of one or more functions of the plurality of connected displays in a second power consumption mode; and wherein the electronic device is further configured to run one or more applications, each application being displayed on a respective display among the functionally connected displays; wherein the executing in the second power consumption mode includes setting, for each of the connected displays, a number of cores or a speed of a core assigned to that functionally connected display based on the application that is displayed by that display.
A compound having the formula: or a pharmaceutically acceptable salt thereof, for use in a method for treating or preventing a neurodegenerative disease; a cardiovascular disease; HIV-associated encephalitis; insulin resistance that leads to diabetes; syndrome X; metabolic syndrome; Type II diabetes; Type I diabetes; slow-onset Type I diabetes; diabetes insipidus; diabetes mellitus; gestational diabetes mellitus; polycystic ovarian syndrome; maturity-onset diabetes; juvenile diabetes; insulin-dependent diabetes; non-insulin dependent diabetes; malnutrition-related diabetes; ketosis-prone diabetes; pre-diabetes; cystic fibrosis related diabetes; hemochromatosis; ketosis-resistant diabetes; a fibrotic disease or disorder; a cancer associated with PKCθ, TOR, Syk or Tyk2 kinase; a leukemia; a carcinoma; a lymphoma; a malignant disease in a patient in need of a bone marrow transplant; a myeloproliferative disorder; a myelodysplastic syndrome; a cancer or tumor resistant to another kinase inhibitor, wherein: R 1 is phenyl unsubstituted or substituted with a substituted or unsubstituted C 3-10 heteroaryl group; R 2 is methyl or ethyl substituted with substituted or unsubstituted heterocycloalkyl; R 3 is H, substituted or unsubstituted C 1-8 alkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted heterocycloalkyl, -NHR 4 or -N(R 4) 2; and R 4 is at each occurrence independently substituted or unsubstituted C 1-8 alkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted cycloalkyl, or substituted or unsubstituted heterocycloalkyl. R 1 is phenyl unsubstituted or substituted with a substituted or unsubstituted C 3-10 heteroaryl group; R 2 is methyl or ethyl substituted with substituted or unsubstituted heterocycloalkyl; R 3 is H, substituted or unsubstituted C 1-8 alkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted heterocycloalkyl, -NHR 4 or -N(R 4) 2; and R 4 is at each occurrence independently substituted or unsubstituted C 1-8 alkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted cycloalkyl, or substituted or unsubstituted heterocycloalkyl.
A prosthetic spacer for implanting at the native mitral valve region comprising: a spacer body configured for placement within the native mitral valve (10, 12) and being compressible to a compressed state for delivery into the heart and expandable from the compressed state to an expanded state; a pair of ventricular anchors (3008, 3010) coupled to and disposed outside of the spacer body such that, in the expanded state, a leaflet-receiving space exists between each of the ventricular anchors and an outer surface of the spacer body to receive a portion of a native valve leaflet (10, 12); wherein each of the ventricular anchors comprises an engagement portion configured to extend behind the received native valve leaflet (10, 12) and contact a ventricular surface of the received portion of the native valve leaflet (10,12); and a pair of atrial anchors (3012, 3014) coupled to and disposed outside of the spacer body being configured to contact an atrial portion of the received portion of the native valve leaflet (10, 12) at a location opposite from the engagement portion of a respective one of the ventricular anchors for retention of the prosthetic spacer. a spacer body configured for placement within the native mitral valve (10, 12) and being compressible to a compressed state for delivery into the heart and expandable from the compressed state to an expanded state; a pair of ventricular anchors (3008, 3010) coupled to and disposed outside of the spacer body such that, in the expanded state, a leaflet-receiving space exists between each of the ventricular anchors and an outer surface of the spacer body to receive a portion of a native valve leaflet (10, 12); wherein each of the ventricular anchors comprises an engagement portion configured to extend behind the received native valve leaflet (10, 12) and contact a ventricular surface of the received portion of the native valve leaflet (10,12); and a pair of atrial anchors (3012, 3014) coupled to and disposed outside of the spacer body being configured to contact an atrial portion of the received portion of the native valve leaflet (10, 12) at a location opposite from the engagement portion of a respective one of the ventricular anchors for retention of the prosthetic spacer.