mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, at a particular node in a network which applies a mesh routing protocol to form a directed acyclic graph, DAG, a first communication transmitted from a transmitting node in the network; computing, by the particular node, a directional attribute based on the first communication, wherein the computing of the directional attribute comprises computing one or more of: i) a region of the network that is reached by the first communication, and ii) a direction from one of the particular node and the transmitting node to one of a region of the network that is reached by the first communication and a region of the network that is unreached by the first communication; computing, by the particular node, a particular direction based on the directional attribute; and transmitting, from the particular node, a second communication using a beam forming technique in the particular direction, wherein the beam forming technique optimizes the formation of the DAG by dividing the reached region of the network into one or more sectors and applying a redundancy-based transmission algorithm to each sector of the reached region of the network on a sector-by-sector basis. receiving, at a particular node in a network which applies a mesh routing protocol to form a directed acyclic graph, DAG, a first communication transmitted from a transmitting node in the network; computing, by the particular node, a directional attribute based on the first communication, wherein the computing of the directional attribute comprises computing one or more of: i) a region of the network that is reached by the first communication, and ii) a direction from one of the particular node and the transmitting node to one of a region of the network that is reached by the first communication and a region of the network that is unreached by the first communication; i) a region of the network that is reached by the first communication, and ii) a direction from one of the particular node and the transmitting node to one of a region of the network that is reached by the first communication and a region of the network that is unreached by the first communication; computing, by the particular node, a particular direction based on the directional attribute; and transmitting, from the particular node, a second communication using a beam forming technique in the particular direction, wherein the beam forming technique optimizes the formation of the DAG by dividing the reached region of the network into one or more sectors and applying a redundancy-based transmission algorithm to each sector of the reached region of the network on a sector-by-sector basis.
A system, comprising: a computer-readable memory storing a condition set having one or more conditions; a communications interface configured to receive event records of a plurality of events, each event record associated with a monitored computing device and having an event type; a matching subsystem configured to provide, for each event record matching a corresponding pattern of a pattern set associated with the respective event type, a respective match record comprising: an identifier of the corresponding pattern; and at least some data of the respective event record; an updating subsystem configured to: receive, from a user interface, a modification record specifying a modification to a condition; and apply the modification record to the condition set to provide an updated condition set; and a testing subsystem configured to provide, for each match record satisfying a corresponding condition of the updated condition set, a respective candidate record comprising a tag associated with the corresponding condition. a computer-readable memory storing a condition set having one or more conditions; a communications interface configured to receive event records of a plurality of events, each event record associated with a monitored computing device and having an event type; a matching subsystem configured to provide, for each event record matching a corresponding pattern of a pattern set associated with the respective event type, a respective match record comprising: an identifier of the corresponding pattern; and at least some data of the respective event record; an identifier of the corresponding pattern; and at least some data of the respective event record; an updating subsystem configured to: receive, from a user interface, a modification record specifying a modification to a condition; and apply the modification record to the condition set to provide an updated condition set; and receive, from a user interface, a modification record specifying a modification to a condition; and apply the modification record to the condition set to provide an updated condition set; and a testing subsystem configured to provide, for each match record satisfying a corresponding condition of the updated condition set, a respective candidate record comprising a tag associated with the corresponding condition.
A lighting device_for vehicle comprising: a lighting tool which includes a reflector having a reflector reflecting face and a light transmission unit; and at least one lighting device which comprises; a socket unit; a light emitting unit which is accommodated in an accommodation unit of the socket unit, and includes a light emitting element; and a lid unit which includes a lid unit reflecting face that faces the light transmission unit, closes the accommodation unit of the socket unit, and in which an opening portion which causes light radiated from the light emitting element to pass through is formed, wherein an end face of the light emitting unit on the opening portion side overlaps with the opening portion in a thickness direction of the lid unit, and is located on the light emitting unit side rather than an end face of the lid unit on a side opposite to the light emitting unit side, such that when the lid unit is fixed to the socket unit, the light emitting unit does not protrude from the opening portion, and the end face of the light emitting unit is accommodated in the opening portion, wherein the lighting device radiates light to an inside of the lighting tool, wherein the lighting device is exposed in the inside of the reflector and wherein, when setting reflectance of the reflector reflecting face to reflectance A (λ), and reflectance of the lid unit reflecting face to reflectance B (λ) in a wavelength λ of the light, it satisfies a relationship in the following expression in a wavelength range of light which is radiated from the lighting device: B λ ≥ A λ × 0.7 a lighting tool which includes a reflector having a reflector reflecting face and a light transmission unit; and at least one lighting device which comprises; a socket unit; a light emitting unit which is accommodated in an accommodation unit of the socket unit, and includes a light emitting element; and a lid unit which includes a lid unit reflecting face that faces the light transmission unit, closes the accommodation unit of the socket unit, and in which an opening portion which causes light radiated from the light emitting element to pass through is formed, wherein an end face of the light emitting unit on the opening portion side overlaps with the opening portion in a thickness direction of the lid unit, and is located on the light emitting unit side rather than an end face of the lid unit on a side opposite to the light emitting unit side, such that when the lid unit is fixed to the socket unit, the light emitting unit does not protrude from the opening portion, and the end face of the light emitting unit is accommodated in the opening portion, wherein the lighting device radiates light to an inside of the lighting tool, wherein the lighting device is exposed in the inside of the reflector and wherein, when setting reflectance of the reflector reflecting face to reflectance A (λ), and reflectance of the lid unit reflecting face to reflectance B (λ) in a wavelength λ of the light, it satisfies a relationship in the following expression in a wavelength range of light which is radiated from the lighting device: B λ ≥ A λ × 0.7
A fusion protein comprising two domains: (i) a nuclease-inactivated Cas9; and (ii) a nuclease, wherein the nuclease is a monomer of the FokI DNA cleavage domain; and wherein the two domains are separated by a non-peptide linker, or by a peptide linker selected from the group consisting of 3, 6, SGSETPGTSESATPES (SEQ ID NO:16), SGSETPGTSESA (SEQ ID NO:17), SGSETPGTSESATPEGGSGGS (SEQ ID NO:18), VPFLLEPDNINGKTC (SEQ ID NO:19), GSAGSAAGSGEF (SEQ ID NO:20), SIVAQLSRPDPA (SEQ ID NO:21), MKIIEQLPSA (SEQ ID NO:22), VRHKLKRVGS (SEQ ID NO:23), GHGTGSTGSGSS (SEQ ID NO:24), MSRPDPA (SEQ ID NO:25), and GGSM (SEQ ID NO:301), wherein the nuclease-inactivated Cas9 domain is capable of binding a guide RNA (gRNA).
Use of an antibody, or functional fragments thereof, for isolating and/or identifying homogenous mesenchymal stem cells from primary tissues, whereby the antibody is antibody W5C5, which is produced by the hybridoma cell line which is deposited, in accordance with the Budapest Treaty, at the Deutsche Sammlung von Mikroorganismen und Zellkulturen (DSMZ) under the number DSM ACC 2813.
Halogen free flame retardant polyamide thermoplastic composition consisting of: a) at least a thermoplastic polyamide polymer, b) at least an inorganic Phosphinate, as first flame retardant (1 st FR) component c) at least an organic phosphinates metal salt, as second flame retardant (2 nd FR) component d) at least a nitrogen based flame retardant agent, as third flame retardant (3 rd FR) component, provided that said nitrogen based flame retardant agent is not ammonium polyphosphate, Phosphoric acid Melamine salts or adduct like Melamine Phosphate, Pyrophosphate or Polyphosphate e) at least an organic polyhydric polymer being defined as an organic polymeric molecule containing many hydroxyl (-OH) radicals, not linked to aromatic or coniugated unsatured bonds, as fourth flame retardant (4 th FR) component, provided that said organic polyhydric polymer is not a phenol-formaldehyde resin f) fillers and /or reinforcing fibers g) other conventional additives the total percentage of components a) to g) being 100%. a) at least a thermoplastic polyamide polymer, b) at least an inorganic Phosphinate, as first flame retardant (1 st FR) component c) at least an organic phosphinates metal salt, as second flame retardant (2 nd FR) component d) at least a nitrogen based flame retardant agent, as third flame retardant (3 rd FR) component, provided that said nitrogen based flame retardant agent is not ammonium polyphosphate, Phosphoric acid Melamine salts or adduct like Melamine Phosphate, Pyrophosphate or Polyphosphate e) at least an organic polyhydric polymer being defined as an organic polymeric molecule containing many hydroxyl (-OH) radicals, not linked to aromatic or coniugated unsatured bonds, as fourth flame retardant (4 th FR) component, provided that said organic polyhydric polymer is not a phenol-formaldehyde resin f) fillers and /or reinforcing fibers g) other conventional additives
A method of an electronic device, the method comprising: displaying a camera icon and a history of message transmission/reception between the electronic device and at least one other electronic device; detecting a first touch input, the first touch input corresponding to a touch on the camera icon; executing, in response to the first touch input, a camera included in the electronic device; displaying, in response to the first touch input, a preview screen of an image to be captured and at least one recently stored image, wherein the preview screen is obtained from the executed camera, and wherein the preview screen is displayed with the history of message transmission/reception; detecting a second touch input associated with capturing an image or a third touch input for selecting an image among the at least one recently stored image while the preview screen is displayed; in response to detecting the second touch input, capturing the image; transmitting the captured image to the at least one other electronic device; or in response to detecting the third touch input, transmitting the selected image among the at least one recently stored image to the at least one other electronic device, wherein the third touch input corresponds to a drag gesture that is begun inside of the selected image and is ended outside of the selected image. displaying a camera icon and a history of message transmission/reception between the electronic device and at least one other electronic device; detecting a first touch input, the first touch input corresponding to a touch on the camera icon; executing, in response to the first touch input, a camera included in the electronic device; displaying, in response to the first touch input, a preview screen of an image to be captured and at least one recently stored image, wherein the preview screen is obtained from the executed camera, and wherein the preview screen is displayed with the history of message transmission/reception; detecting a second touch input associated with capturing an image or a third touch input for selecting an image among the at least one recently stored image while the preview screen is displayed; in response to detecting the second touch input, capturing the image; transmitting the captured image to the at least one other electronic device; or in response to detecting the third touch input, transmitting the selected image among the at least one recently stored image to the at least one other electronic device, wherein the third touch input corresponds to a drag gesture that is begun inside of the selected image and is ended outside of the selected image.
A method of operating a terminal device communicating with a base station in a telecommunications system over a radio interface supporting a downlink control channel for conveying control messages from the base station to the terminal device and a downlink data channel for conveying other messages comprising system information messages from the base station to the terminal device, wherein the control messages convey information on resource allocations for the other messages on the downlink data channel, and wherein the method comprises receiving a control message from the base station conveying an indication of allocated transmission resources on the downlink data channel, determining a validity period for the control message, and receiving a plurality of other messages from the base station on the downlink data channel using the allocated transmission resources within the validity period for the control message, wherein the validity period for the control message is determined in dependence on a transmission characteristic of the control message.
A control apparatus comprising: an acquisition unit configured to acquire a measurement value measured regarding control target equipment (20); a first control unit configured to output an operation amount of the control target equipment (20) according to the measurement value by at least one of feedback control or feed-forward control; a second control unit configured to output an operation amount of the control target equipment (20) according to the measurement value using a model learnt by using learning data; and a switching unit configured to perform switching between the first control unit and the second control unit by which the control target equipment (20) is controlled, wherein the switching unit is configured to cause the second control unit to perform the control until reference time elapses from start of the control on the control target equipment (20), and the first control unit to perform the control after the reference time has elapsed from the start of the control on the control target equipment (20). an acquisition unit configured to acquire a measurement value measured regarding control target equipment (20); a first control unit configured to output an operation amount of the control target equipment (20) according to the measurement value by at least one of feedback control or feed-forward control; a second control unit configured to output an operation amount of the control target equipment (20) according to the measurement value using a model learnt by using learning data; and a switching unit configured to perform switching between the first control unit and the second control unit by which the control target equipment (20) is controlled, wherein the switching unit is configured to cause the second control unit to perform the control until reference time elapses from start of the control on the control target equipment (20), and the first control unit to perform the control after the reference time has elapsed from the start of the control on the control target equipment (20).
An instrument for detecting and measuring fluorescence, comprising: a plurality of spaced-apart reaction regions; a light emitting source including a power source, wherein the light emitting source comprises more than one group of individual light sources, wherein each group of individual light sources is configured to provide excitation beams that illuminate one reaction region of the plurality of reaction regions simultaneously, and wherein different groups of light sources emit different excitation frequencies; a detector configured to receive emission beams from the plurality of spaced-apart reaction regions; and a controller capable of powering the individual light sources. a plurality of spaced-apart reaction regions; a light emitting source including a power source, wherein the light emitting source comprises more than one group of individual light sources, wherein each group of individual light sources is configured to provide excitation beams that illuminate one reaction region of the plurality of reaction regions simultaneously, and wherein different groups of light sources emit different excitation frequencies; a detector configured to receive emission beams from the plurality of spaced-apart reaction regions; and a controller capable of powering the individual light sources.
Cooling and heating unit of flows intended for and coming from a system of air separation columns comprising an exchange line, a first turbine, an auxiliary turbine, a booster, the exchange line comprising: i) at least one passage for receiving a first purified air flow, the at least one passage for receiving a first purified air flow being connected to the inlet of the booster, ii) at least one passage connected to the outlet of the booster, the at least one passage connected to the outlet of the booster being connected to the inlet of the first turbine, iii) at least two passages for receiving at least two fluids (35, 37) which are heated, iv) at least one passage for receiving a second purified air flow, the at least one passage for receiving the second purified air flow being connected to the inlet of the auxiliary turbine and the outlet of the auxiliary turbine being connected to at least one air passage to be heated and characterised in that these passages are connected so that in operation, the inlet temperature of the auxiliary turbine is higher than the inlet temperature of the first turbine and the inlet temperature of the auxiliary turbine is higher than the inlet temperature of the booster. i) at least one passage for receiving a first purified air flow, the at least one passage for receiving a first purified air flow being connected to the inlet of the booster, ii) at least one passage connected to the outlet of the booster, the at least one passage connected to the outlet of the booster being connected to the inlet of the first turbine, iii) at least two passages for receiving at least two fluids (35, 37) which are heated, iv) at least one passage for receiving a second purified air flow, the at least one passage for receiving the second purified air flow being connected to the inlet of the auxiliary turbine and the outlet of the auxiliary turbine being connected to at least one air passage to be heated and characterised in that these passages are connected so that in operation, the inlet temperature of the auxiliary turbine is higher than the inlet temperature of the first turbine and the inlet temperature of the auxiliary turbine is higher than the inlet temperature of the booster.
A cooking appliance comprising: a body that defines a cooking chamber therein; a door rotatably connected to the body and configured to open or close at least a portion of the cooking chamber; a hinge mechanism that rotatably connects the door to the body; and a control device, disposed in the door, comprising a component cooling flow path configured to allow air to pass through the control device to cool one or more components within the control device, wherein the door comprises a door cooling flow path (P1, P2) configured to cool the door, being separate from the component cooling flow path, characterized by the control device comprising a control housing, configured to accommodate one or more components, comprising a first sidewall that defines an air inlet (332, 333) and a second sidewall that defines an air outlet; and at least one cooling fan (360, 361, 362) disposed between the air inlet (332, 333) and the air outlet, wherein the air inlet (332, 333), an inner space of the control housing, and the air outlet define the component cooling flow path, and wherein the at least one cooling fan (360, 361, 362) includes: an inlet-side cooling fan (360, 361) disposed at a first position of the control housing closer to the air inlet (332, 333) than the air outlet, and an outlet-side cooling fan disposed at a second position of the control housing closer to the air outlet than the air inlet (332, 333). a body that defines a cooking chamber therein; a door rotatably connected to the body and configured to open or close at least a portion of the cooking chamber; a hinge mechanism that rotatably connects the door to the body; and a control device, disposed in the door, comprising a component cooling flow path configured to allow air to pass through the control device to cool one or more components within the control device, wherein the door comprises a door cooling flow path (P1, P2) configured to cool the door, being separate from the component cooling flow path, characterized by the control device comprising a control housing, configured to accommodate one or more components, comprising a first sidewall that defines an air inlet (332, 333) and a second sidewall that defines an air outlet; and at least one cooling fan (360, 361, 362) disposed between the air inlet (332, 333) and the air outlet, wherein the air inlet (332, 333), an inner space of the control housing, and the air outlet define the component cooling flow path, and wherein the at least one cooling fan (360, 361, 362) includes: an inlet-side cooling fan (360, 361) disposed at a first position of the control housing closer to the air inlet (332, 333) than the air outlet, and an outlet-side cooling fan disposed at a second position of the control housing closer to the air outlet than the air inlet (332, 333). an inlet-side cooling fan (360, 361) disposed at a first position of the control housing closer to the air inlet (332, 333) than the air outlet, and an outlet-side cooling fan disposed at a second position of the control housing closer to the air outlet than the air inlet (332, 333).