mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating Transmission Control Protocol throughput between first and second communication devices, the method comprising: determining maximum bottleneck throughput of a communication link between the first communication device and a third communication device, wherein the communication link between the first and third communication devices, and the communication link between the first and second communication devices, apply a common access network; determining Round Trip Time between the first and second communication devices; transmitting one or more packets by applying User Datagram Protocol from the third communication device to the first communication device; measuring packet loss rate associated with the transmitted one or more packets by monitoring sequence number of the packets; and translating measured packet loss rate to Transmission Control Protocol throughput according to the determined maximum bottleneck throughput and the determined Round Trip Time. determining maximum bottleneck throughput of a communication link between the first communication device and a third communication device, wherein the communication link between the first and third communication devices, and the communication link between the first and second communication devices, apply a common access network; determining Round Trip Time between the first and second communication devices; transmitting one or more packets by applying User Datagram Protocol from the third communication device to the first communication device; measuring packet loss rate associated with the transmitted one or more packets by monitoring sequence number of the packets; and translating measured packet loss rate to Transmission Control Protocol throughput according to the determined maximum bottleneck throughput and the determined Round Trip Time.
A system comprising: an eyewear configured as an input device, the eyewear including a multi-touch sensor set comprising one or more multi-touch sensors (102 1 -102 n; 222-227; 332-335, 338; 442-447; 552-554; 662-664; 772, 774; 881-884) that detect contact and/or proximity, the multi-touch sensors configured to sense user interaction with the eyewear and output signals representative of the user interaction, the multi-touch sensor set including at least one inward facing sensor to recognize a profile of a user of the eyewear, the multi-touch sensor set coupled to sensor handling logic to provide input data corresponding to the signals to a program, and apply viewing and audio preferences corresponding to the recognized user profile for interacting with the program.
A focused ion beam system for irradiating a sample or a workpiece with a focused ion beam to process the sample, said focused ion beam system comprising: an ion source for producing the ion beam; a lens system for focusing the ion beam onto the sample; a detector for detecting secondary electrons emanating from the sample; and a controller for controlling the lens system; wherein said controller is operative to provide control such that the sample is irradiated with the ion beam without scanning the beam, characterised in that the controller is further operative to provide that a focus of the ion beam is varied by varying the intensity of an objective lens during the ion beam irradiation, to measure the intensity of a signal indicating secondary electrons emanating from the sample while the intensity of the objective lens is being varied, and to make a focal adjustment of the ion beam on the basis of the intensity of the objective lens obtained when the measured intensity of the signal indicating secondary electrons is minimal. an ion source for producing the ion beam; a lens system for focusing the ion beam onto the sample; a detector for detecting secondary electrons emanating from the sample; and a controller for controlling the lens system;
A method of manufacturing an amorphous electrode material comprising the steps of: - mixing an ionic liquid containing a halide compound and nanostructures and a powder precursor being a compound of an element of an electrode material, the mixing being carried out with the constituents of the mixture at a temperature approximating to the ice-point, for example 0°C for a precursor including H 2 O, to precipitate initially planar sheets of an amorphous compound of the halide and the said element of the precursor to form a mixture with the remaining ionic liquid and the nanostructures; - whereby the planar sheets are coated with the ionic liquid and curl to form nanospheres agglomerated into microspheres, the nanospheres being interconnected or interlaced by or with the nanostructures and having mesopores, with macropores (or channels) being present between the nanospheres. - mixing an ionic liquid containing a halide compound and nanostructures and a powder precursor being a compound of an element of an electrode material, the mixing being carried out with the constituents of the mixture at a temperature approximating to the ice-point, for example 0°C for a precursor including H 2 O, to precipitate initially planar sheets of an amorphous compound of the halide and the said element of the precursor to form a mixture with the remaining ionic liquid and the nanostructures; - whereby the planar sheets are coated with the ionic liquid and curl to form nanospheres agglomerated into microspheres, the nanospheres being interconnected or interlaced by or with the nanostructures and having mesopores, with macropores (or channels) being present between the nanospheres.
A method comprising: receiving, by a first cloud node, a service request from a second cloud node for a frequency allocation in a shared portion of a spectrum to be shared between at least a radar and a user equipment; in response to said receiving, synchronizing by the first cloud node first spectrum information collected by a sensor with second spectrum information stored in a centralized shared spectrum database, wherein the second spectrum information stored in the centralized shared spectrum database includes radar information and possible interferer information, wherein the radar information includes at least one of a physical location of a radar, a location of a radar main beam, a frequency of the radar, or a rotation pattern of the radar; in response to said synchronizing, determining by the first cloud node if the shared portion of the spectrum is available; and in response to said determining, sending, by the first cloud node, available frequency information to the second cloud node to cause the second cloud node to use or inhibit use of the shared portion of the spectrum for a user equipment channel allocation. receiving, by a first cloud node, a service request from a second cloud node for a frequency allocation in a shared portion of a spectrum to be shared between at least a radar and a user equipment; in response to said receiving, synchronizing by the first cloud node first spectrum information collected by a sensor with second spectrum information stored in a centralized shared spectrum database, wherein the second spectrum information stored in the centralized shared spectrum database includes radar information and possible interferer information, wherein the radar information includes at least one of a physical location of a radar, a location of a radar main beam, a frequency of the radar, or a rotation pattern of the radar; in response to said synchronizing, determining by the first cloud node if the shared portion of the spectrum is available; and in response to said determining, sending, by the first cloud node, available frequency information to the second cloud node to cause the second cloud node to use or inhibit use of the shared portion of the spectrum for a user equipment channel allocation.
An in vitro method comprising: (a) contacting a biological sample obtained from a subject with highly purified virus-like particles (HPVLPs), consisting predominantly of the VP1 protein of the JC Virus, in solution under conditions suitable for binding of a JCV antibody in the sample to an HPVLP, thereby providing a pre-incubated sample; (b) contacting the pre-incubated sample with HPVLPs, consisting predominantly of the VP1 protein of the JCV, immobilized on a solid substrate under conditions suitable for binding of a JCV antibody in the sample to an HPVLP; (c) detecting the level of JCV antibody in the pre-incubated sample binding to the immobilized HPVLPs; and (d) comparing the detected level of JCV antibody in the pre-incubated biological sample to the level of JCV antibody detected in a biological sample obtained from the subject that was pre-incubated in a solution without HPVLPs, and was contacted with HPVLP immobilized on a solid substrate under conditions suitable for binding of a JCV antibody in the sample to an HPVLP, wherein the HPVLPs are composed of more than 5, at least 50, 150 or 360 VP1 polypeptides. (a) contacting a biological sample obtained from a subject with highly purified virus-like particles (HPVLPs), consisting predominantly of the VP1 protein of the JC Virus, in solution under conditions suitable for binding of a JCV antibody in the sample to an HPVLP, thereby providing a pre-incubated sample; (b) contacting the pre-incubated sample with HPVLPs, consisting predominantly of the VP1 protein of the JCV, immobilized on a solid substrate under conditions suitable for binding of a JCV antibody in the sample to an HPVLP; (c) detecting the level of JCV antibody in the pre-incubated sample binding to the immobilized HPVLPs; and (d) comparing the detected level of JCV antibody in the pre-incubated biological sample to the level of JCV antibody detected in a biological sample obtained from the subject that was pre-incubated in a solution without HPVLPs, and was contacted with HPVLP immobilized on a solid substrate under conditions suitable for binding of a JCV antibody in the sample to an HPVLP,
An electric power steering system comprising: a vehicle speed detector configured to detect a vehicle speed; a driving circuit configured to supply power to an electric motor; a main power supply enabled to supply power to the driving circuit; an auxiliary power supply enabled to supply power to the driving circuit; a charging circuit configured to charge the auxiliary power supply based on the main power supply; a switching circuit configured to switch a power supply state between a first power supply state where the driving circuit is supplied with power only by the main power supply and a second power supply state where the driving circuit is supplied with power utilizing both the main power supply and the auxiliary power supply; a first controller that controls the charging circuit; and a second controller that controls the switching circuit, characterized in that the first controller is configured to drive the charging circuit to charge the auxiliary power supply only when the vehicle speed detected by the vehicle speed detector is lower than a predetermined first threshold (α) and an inter-terminal voltage (Vc) of the auxiliary power supply is lower than a predetermined second threshold (β). a vehicle speed detector configured to detect a vehicle speed; a driving circuit configured to supply power to an electric motor; a main power supply enabled to supply power to the driving circuit; an auxiliary power supply enabled to supply power to the driving circuit; a charging circuit configured to charge the auxiliary power supply based on the main power supply; a switching circuit configured to switch a power supply state between a first power supply state where the driving circuit is supplied with power only by the main power supply and a second power supply state where the driving circuit is supplied with power utilizing both the main power supply and the auxiliary power supply; a first controller that controls the charging circuit; and a second controller that controls the switching circuit, characterized in that the first controller is configured to drive the charging circuit to charge the auxiliary power supply only when the vehicle speed detected by the vehicle speed detector is lower than a predetermined first threshold (α) and an inter-terminal voltage (Vc) of the auxiliary power supply is lower than a predetermined second threshold (β).
A gripper for manipulating sample containers, in particular in the form of small tubes, with a gripper base, at least two gripper fingers arranged on the gripper base and respectively rotatably around a finger rotation axis with respect to the gripper base and including each one retaining portion for detecting a sample container, whereas the retaining portions of the gripper fingers respectively are arranged acentrically with respect to the associated finger rotation axis, and with a first drive for rotating the gripper fingers, whereas the gripper fingers are coupled together in such a way that they are driven simultaneously and with respectively the same rotational velocity and speed, characterised in that the gripper base is arranged rotatably on a base body and with respect to the said around a base rotation axis which is different from the finger rotation axes, that a second drive is provided for rotating the gripper base with respect to the base body and that a control device is provided for controlling the drives (9, 10) in such a way that the result is substantially a linear movement with respect to the base body further to a movement combination of the rotation of the gripper fingers with respect to the gripper base and of the rotation of the gripper base with respect to the base body for each of the retaining portions of the gripper fingers.
An adhesive composition for adhesively bonding molded parts made of plastics material, in particular plastics pipes, comprising at least one PVC-C resin having a K value of ≤ 55 and at least one liquid organic solvent in which the PVC-C resin is soluble, butan-2-one being contained as the liquid organic solvent, characterized in that the at least one PVC-C resin is contained in an amount of 15 to 25 wt.%, based on the total weight of the composition, and in that the butan-2-one is contained in an amount of 70 to 85 wt.%, based on the total weight of the composition. at least one PVC-C resin having a K value of ≤ 55 and at least one liquid organic solvent in which the PVC-C resin is soluble, butan-2-one being contained as the liquid organic solvent, characterized in that the at least one PVC-C resin is contained in an amount of 15 to 25 wt.%, based on the total weight of the composition, and in that the butan-2-one is contained in an amount of 70 to 85 wt.%, based on the total weight of the composition.
A refrigerating system, comprising: a compressor (140, 240, 340, 440, 540, 640); a first cycle for circulating a refrigerant through a first evaporator (110, 210, 310, 410, 510, 610) provided to cool a first cooling space (117, 217, 317, 417, 517, 617); a second cycle for circulating a refrigerant through a second evaporator (120, 220, 320, 420, 520, 620) provided to cool a second cooling space (127, 227, 327, 427, 527, 627); and a refrigerant supply means (170, 270,370, 470, 570, 670) for supplying the refrigerant discharged from the compressor (140, 240, 340, 440, 540, 640) selectively to one of the first and second cycles; wherein each of the outlets of the first and second evaporators (110, 210, 310, 410, 510, 610; 120, 220, 320, 420, 520, 620) is connected to the compressor (140, 240, 340, 440, 540, 640), and each of the inlets of the first and second evaporators (110, 210, 310, 410, 510, 610; 120,220, 320, 420, 520, 620) is connected to the refrigerant supply means (170, 270,370, 470, 570, 670), characterized by a heat exchanging unit (180, 280, 380, 480, 580, 680) for performing heat exchange between the first and second evaporators (110, 210, 310, 410, 510, 610; 120,220, 320, 420, 520, 620). a compressor (140, 240, 340, 440, 540, 640); a first cycle for circulating a refrigerant through a first evaporator (110, 210, 310, 410, 510, 610) provided to cool a first cooling space (117, 217, 317, 417, 517, 617); a second cycle for circulating a refrigerant through a second evaporator (120, 220, 320, 420, 520, 620) provided to cool a second cooling space (127, 227, 327, 427, 527, 627); and a refrigerant supply means (170, 270,370, 470, 570, 670) for supplying the refrigerant discharged from the compressor (140, 240, 340, 440, 540, 640) selectively to one of the first and second cycles; wherein each of the outlets of the first and second evaporators (110, 210, 310, 410, 510, 610; 120, 220, 320, 420, 520, 620) is connected to the compressor (140, 240, 340, 440, 540, 640), and each of the inlets of the first and second evaporators (110, 210, 310, 410, 510, 610; 120,220, 320, 420, 520, 620) is connected to the refrigerant supply means (170, 270,370, 470, 570, 670), characterized by a heat exchanging unit (180, 280, 380, 480, 580, 680) for performing heat exchange between the first and second evaporators (110, 210, 310, 410, 510, 610; 120,220, 320, 420, 520, 620).
A bidirectional electromagnetic valve, comprising a main valve body, a pilot valve body, wherein a piston is provided in a valve cavity formed by the main valve body and a piston cavity is formed, and the main valve body is provided with a first connecting port and a second connecting port which are configured to be communicated or not communicated with each other by the piston, the bidirectional electromagnetic valve further comprises a first flow passage and a second flow passage which are in communication with the first connecting port and the second connecting port, respectively, for a refrigerant flowing out, wherein both of the first flow passage and the second flow passage are arranged in the main valve body; a pilot valve flow passage is further provided in the main valve body, the piston cavity is in communication with a pilot valve port in the pilot valve body via the pilot valve flow passage; and a pilot valve head of the pilot valve body is moved to open or close the pilot valve port, which allows the first flow passage and the second flow passage to be communicated or not communicated with the piston cavity, wherein the pilot valve body is arranged on a side wall of the main valve body, wherein the first connecting port is arranged on the side wall of the main valve body, and the second connecting port is arranged at an end, provided with a valve port, of the main valve body, wherein an annular front valve chamber for communicating with the first connecting port is formed between an outer wall of the piston at an end close to the valve port and an inner wall of the main valve body, the first flow passage is in communication with the first connecting port via the front valve chamber; characterized in that the pilot valve body is located at the end of the side wall, close to the valve port, of the main valve body; and the pilot valve body is in a position corresponding to the position of the second connecting port.
A combustion burner comprising: a fuel nozzle; a burner tube that surrounds the fuel nozzle to form an air passage between the burner tube and the fuel nozzle; a plurality of swirler vanes arranged in a plurality of positions in a circumferential direction on an external circumferential surface of the fuel nozzle, each of which extends along an axial direction of the fuel nozzle, and gradually curves from upstream to downstream so as to swirl air flowing in the air passage from the upstream to the downstream; a liquid fuel injecting hole that is formed on the fuel nozzle such that a liquid fuel can be injected therefrom to a vane pressure surface of each of the swirler vanes; and a cooling unit for cooling a part of the vane pressure surface on which the liquid fuel hits, characterized in that the cooling unit includes a water injecting hole that is arranged upstream of the liquid fuel injecting hole provided on the fuel nozzle, and in line therewith, such that water can be injected therefrom to the vane pressure surface of the swirler vane. a fuel nozzle; a burner tube that surrounds the fuel nozzle to form an air passage between the burner tube and the fuel nozzle; a plurality of swirler vanes arranged in a plurality of positions in a circumferential direction on an external circumferential surface of the fuel nozzle, each of which extends along an axial direction of the fuel nozzle, and gradually curves from upstream to downstream so as to swirl air flowing in the air passage from the upstream to the downstream; a liquid fuel injecting hole that is formed on the fuel nozzle such that a liquid fuel can be injected therefrom to a vane pressure surface of each of the swirler vanes; and a cooling unit for cooling a part of the vane pressure surface on which the liquid fuel hits, characterized in that the cooling unit includes a water injecting hole that is arranged upstream of the liquid fuel injecting hole provided on the fuel nozzle, and in line therewith, such that water can be injected therefrom to the vane pressure surface of the swirler vane.
A state transition control method, applied in a videoconferencing system comprising at least a multipoint control server, a site centralized control device at two or more sites, and all external devices of a site controlled by a site centralized control device, wherein each site centralized control device is directly connected to all the external devices of the site controlled by the site centralized control device, wherein the multipoint control server is configured to switch or mix video and audio data according to commands of a management console and is connected to each site centralized control device through a network, wherein the method comprises: receiving, by the multipoint control server, a conference reservation message from the management console, wherein the conference reservation message carries start time and end time of a reserved conference and an identity of the site centralized control device at the site participating in the reserved conference; and sending, by the multipoint control server, a state transition command to the site centralized control devices according to the start time of the reserved conference and the identity of the site centralized control device at each site participating in the reserved conference or according to the end time of the reserved conference and the identity of the site centralized control device at each site participating in the reserved conference, so that the site centralized control device performs state transition control on all the external devices of the site controlled by the site centralized control device. receiving, by the multipoint control server, a conference reservation message from the management console, wherein the conference reservation message carries start time and end time of a reserved conference and an identity of the site centralized control device at the site participating in the reserved conference; and sending, by the multipoint control server, a state transition command to the site centralized control devices according to the start time of the reserved conference and the identity of the site centralized control device at each site participating in the reserved conference or according to the end time of the reserved conference and the identity of the site centralized control device at each site participating in the reserved conference, so that the site centralized control device performs state transition control on all the external devices of the site controlled by the site centralized control device.