mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling packet-based communications with a network device that communicates on different wireless networks having overlapping signal channels, the method comprising: generating scheduling data in response to the network device's usage of an overlapping signal channel of a first one of the wireless networks, which first one of the wireless networks is a Bluetooth network, the scheduling data characterizing an expected length of time that the overlapping signal channel is needed; communicating the scheduling data over existing network coexistence control lines between collocated communications circuits (162, 164) that respectively control communications with the network device on the first wireless network and on a second one of the wireless networks, which second one of the wireless networks is a WLAN; and using the scheduling data to schedule communications with the network device on an overlapping signal channel of theWLAN, wherein using the scheduling data to schedule communications with the network device on an overlapping signal channel of the WLAN includes communicating data that sets a duration field of a communication to a wireless access point (170, AP) on the WLAN to set a time period during which the access point will not send frames to the network device. generating scheduling data in response to the network device's usage of an overlapping signal channel of a first one of the wireless networks, which first one of the wireless networks is a Bluetooth network, the scheduling data characterizing an expected length of time that the overlapping signal channel is needed; communicating the scheduling data over existing network coexistence control lines between collocated communications circuits (162, 164) that respectively control communications with the network device on the first wireless network and on a second one of the wireless networks, which second one of the wireless networks is a WLAN; and using the scheduling data to schedule communications with the network device on an overlapping signal channel of theWLAN, wherein using the scheduling data to schedule communications with the network device on an overlapping signal channel of the WLAN includes communicating data that sets a duration field of a communication to a wireless access point (170, AP) on the WLAN to set a time period during which the access point will not send frames to the network device.
An automated wheeled delivery cart configured to interface with a stencil printer to automate a changeover process for the stencil printer, comprising: a housing configured to support replacement; a robotic arm configured to remove and replace an item in a stencil printer; and a controller configured to control the automated wheeled delivery cart to automatically move one or more replacement items from an item stocking location to the stencil printer, wherein the housing is configured with an interface, which is configured to register with the stencil printer and configured to dock within a docking station provided on the stencil printer, wherein the delivery cart is configured to be automatically moved, either by the controller or by a remote control or an automated control associated with the stencil printer, a production line, and/or a dedicated control, and; wherein the robotic arm includes a gripping device mounted at an end of the robotic arm and a camera mounted at the end of the robotic arm adjacent to or on the gripping device, the camera being configured to inspect items retrieved from the delivery cart or items used on the stencil printer. a housing configured to support replacement; a robotic arm configured to remove and replace an item in a stencil printer; and a controller configured to control the automated wheeled delivery cart to automatically move one or more replacement items from an item stocking location to the stencil printer, wherein the housing is configured with an interface, which is configured to register with the stencil printer and configured to dock within a docking station provided on the stencil printer, wherein the delivery cart is configured to be automatically moved, either by the controller or by a remote control or an automated control associated with the stencil printer, a production line, and/or a dedicated control, and; wherein the robotic arm includes a gripping device mounted at an end of the robotic arm and a camera mounted at the end of the robotic arm adjacent to or on the gripping device, the camera being configured to inspect items retrieved from the delivery cart or items used on the stencil printer.
A waveguide image display element comprising a waveguide and at least one grating (12, 16) arranged on or within the waveguide, the at least one grating being arranged to couple visible light into, within, and/or out of the waveguide, wherein the at least one grating, having a period in a range of 5 μm or more, is an achromatic grating configured to diffract at least two different wavelengths having the same angle of incidence into the same diffraction angle with an angular accuracy of 5 degrees using different diffraction orders, wherein a proportion of intensity of the diffracted light to the intensity of the incident light is within -/+ 10 % for all of the at least two different wavelengths, and wherein each period of the grating comprises a non-periodic microstructure pattern (14, 18) having a surface profile which repeats from period to period.
A transfer system conveying material other than grain from a harvesting machine to a packaging machine towed by the harvesting machine, the system comprising: a harvesting machine comprising a harvesting machine hitch; a packaging machine comprising a packaging machine hitch; an omnidirectional articulating joint pivotably joining the harvesting machine hitch to the packaging machine hitch such that the harvesting machine is secured to the packaging machine in a towing relationship; a conduit disposed adjacent to and above the packaging machine hitch, the conduit comprising an inlet end and an outlet end, the conduit comprising first and second opposing side portions (60,62), and the conduit is secured to the packaging machine, and wherein the conduit, and packaging machine are collectively in pivotal arrangement relative to the harvesting machine, characterized in that, the system further comprises an accelerator, the accelerator comprising a housing mounted to the packaging machine hitch, the housing comprising a top-side inlet and a side outlet, the accelerator also comprising a MOG-propelling disk disposed in the housing and rotatable about an axis, wherein the inlet end of the conduit is coupled to, and adjacent to, the side outlet of the accelerator housing, the conduit comprising a top side portion without an opposing bottom portion, and wherein at least part of the top side portion is parallel with the plane of the disk, and wherein the accelerator is secured to the conduit and the packaging machine hitch. a harvesting machine comprising a harvesting machine hitch; a packaging machine comprising a packaging machine hitch; an omnidirectional articulating joint pivotably joining the harvesting machine hitch to the packaging machine hitch such that the harvesting machine is secured to the packaging machine in a towing relationship; a conduit disposed adjacent to and above the packaging machine hitch, the conduit comprising an inlet end and an outlet end, the conduit comprising first and second opposing side portions (60,62), and the conduit is secured to the packaging machine, and wherein the conduit, and packaging machine are collectively in pivotal arrangement relative to the harvesting machine, characterized in that, the system further comprises an accelerator, the accelerator comprising a housing mounted to the packaging machine hitch, the housing comprising a top-side inlet and a side outlet, the accelerator also comprising a MOG-propelling disk disposed in the housing and rotatable about an axis, wherein the inlet end of the conduit is coupled to, and adjacent to, the side outlet of the accelerator housing, the conduit comprising a top side portion without an opposing bottom portion, and wherein at least part of the top side portion is parallel with the plane of the disk, and wherein the accelerator is secured to the conduit and the packaging machine hitch.
A process for the production of friction units by coating a support body made of a C/SiC material, wherein the support body is cleaned on its surface to be coated in a first step, a water-based slurry containing particles of SiC and carbon is then applied to the support body, the support body thus coated is subjected to drying in order to remove the water from the slurry and to produce an open porosity, and then the support body with the dried, open-pored and crack-free coating is subjected to a high-temperature treatment with the introduction of liquid silicon into the open porosity, and then the support body with the dried, open-pored and crack-free coating is subjected to a high-temperature treatment with the addition of liquid silicon into the open porosity until a carbon-free friction layer consisting exclusively of SiC and silicon is formed, whereby the composition of the slurry being selected such that the SiC content in the friction layer is at least 70 by vol.-%.
A control device for an agricultural application device (10, 210, 410), which has an application boom (14, 214, 414) pivotally mounted on a carrier (12, 212, 412), on which application components (22, 222, 422) are arranged for applying liquid and/or solid active substances, wherein the control device (40, 240, 440) has a pressure supply connection (62, 268, 468) for supplying pressurized hydraulic fluid and a return connection (64, 270, 470) for dispensing hydraulic fluid to a storage tank, and wherein the control device (40, 240, 440) has a controllable valve arrangement (60, 266, 466) and a hydraulic cylinder arrangement (41, 241, 441), which is connected to the valve arrangement (60, 266, 466) and has a first cylinder effective area (51, 255, 455) and a second cylinder effective area (52, 265, 465), wherein the two cylinder effective areas (51, 52, 255, 265, 455, 465) can be pressurized and each are connected to a hydraulic accumulator (98, 100, 318, 320, 524, 544), and wherein the pivot position of the application boom (14, 214, 414) can be varied by changing the switching state of the valve arrangement (60, 266, 466), characterized in that the cylinder effective areas (51, 52, 255, 265, 455, 465) are pressurized with a predeterminable pressure independently of the pivot position of the application boom (14, 214, 414).
Support element, in particular for receiving axial forces applied by means of a fastening means, wherein the support element has a support sleeve, wherein the support sleeve has a through-opening which is configured in the axial direction, in particular for receiving the fastening means, wherein the support element has a bearing means, wherein the support sleeve is mounted in the bearing means, wherein the support sleeve and the bearing means are connected together, wherein the bearing means has a shank with a first shank portion and a second shank portion adjoining the first shank portion in the axial direction, wherein the first shank portion has a holding means, wherein the holding means protrudes radially outwardly relative to the second shank portion and is deformable radially inwardly counter to a restoring force, wherein the bearing means consists of a first material and the support sleeve consists of a second material, wherein the first material and the second material are different, wherein the first material is a plastic and the second material is metal or an alloy.
A method of wireless communication in a synchronous network for a scheduling entity to communicate with a set of one or more subordinate entities utilizing a time division duplex, TDD, carrier, wherein the TDD carrier comprises a subframe, the method comprising: transmitting control information in a control portion of the subframe, the control information corresponding to data information within the subframe; transmitting the data information in a data portion of the subframe; characterized by receiving a pilot signal from the set of subordinate entities in a pilot portion of the subframe; and receiving an acknowledged, ACK/not acknowledged, NACK, signal from the set of subordinate entities in an ACK portion of the subframe, the ACK portion being subsequent to the pilot portion of the subframe, the ACK/NACK signal comprising acknowledgment information corresponding to the data information, wherein the control portion, the data portion, the pilot portion, and the ACK portion are contained in the same subframe. transmitting control information in a control portion of the subframe, the control information corresponding to data information within the subframe; transmitting the data information in a data portion of the subframe; characterized by receiving a pilot signal from the set of subordinate entities in a pilot portion of the subframe; and receiving an acknowledged, ACK/not acknowledged, NACK, signal from the set of subordinate entities in an ACK portion of the subframe, the ACK portion being subsequent to the pilot portion of the subframe, the ACK/NACK signal comprising acknowledgment information corresponding to the data information, wherein the control portion, the data portion, the pilot portion, and the ACK portion are contained in the same subframe.
A method for optimizing the adjustment of the gating of at least one hydraulic turbine, this turbine being provided with a series of wicket gates, these wicket gates being movable in a same conjoined movement, between a closure position in which they are pressed two by two on each other and an opening position in which they are distant from each other, via a gating ring which is kinematically connected to each of these wicket gates, this gating ring being itself moved in rotation around itself by at least one cylinder, this cylinder including a device for adjusting the travel of its rod, characterized by the fact that it includes at least the following steps, said turbine being previously stopped and drained of water and the rod of said cylinder being provided with at least one strain gauge: 1/ Calculation of the theoretical force to be applied to said cylinder to obtain a watertight closure of said wicket gates; 2/ Measurement, via said strain gauge, of the force applied to said cylinder, the latter being out of operation; 3/ After the startup of said cylinder, movement of its rod until said wicket gates occupy said closure position and measurement of the corresponding force, called the "measured force"; 4/ Comparison of the measured force to the theoretical force calculated in step 1/; 5/ Shutdown of said cylinder if a difference is observed between the two forces upon completion of step 4/; 6/ Modification of the travel of the rod of said cylinder by means of said adjustment device; 7/ After actuation of said wicket gates to make them occupy said opening position, repetition of steps 3/ to 6/ as long as said measured force has not reached the theoretical force. 1/ Calculation of the theoretical force to be applied to said cylinder to obtain a watertight closure of said wicket gates; 2/ Measurement, via said strain gauge, of the force applied to said cylinder, the latter being out of operation; 3/ After the startup of said cylinder, movement of its rod until said wicket gates occupy said closure position and measurement of the corresponding force, called the "measured force"; 4/ Comparison of the measured force to the theoretical force calculated in step 1/; 5/ Shutdown of said cylinder if a difference is observed between the two forces upon completion of step 4/; 6/ Modification of the travel of the rod of said cylinder by means of said adjustment device; 7/ After actuation of said wicket gates to make them occupy said opening position, repetition of steps 3/ to 6/ as long as said measured force has not reached the theoretical force.
A blood pump comprising: a stator assembly comprising a fluid inlet and a fluid outlet; a rotor assembly comprising an impeller rotatable about an axis to move fluid from the inlet to the outlet; magnetic radial bearings for supporting the rotor assembly for rotation relative to the stator assembly; and a motor for imparting rotation of the impeller about the axis, the motor comprising a motor stator fixed to the stator assembly, a motor rotor fixed to the rotor assembly, and a radial motor gap between the stator and the rotor; the pump being a mixed flow pump, the impeller directing a primary flow from the fluid inlet to exit the pump through the fluid outlet at an intermediate angle having both axial and radial components, the primary flow flowing along an outside diameter of the motor, the pressure rise of the pump directing a wash flow through the motor gap. a stator assembly comprising a fluid inlet and a fluid outlet; a rotor assembly comprising an impeller rotatable about an axis to move fluid from the inlet to the outlet; magnetic radial bearings for supporting the rotor assembly for rotation relative to the stator assembly; and a motor for imparting rotation of the impeller about the axis, the motor comprising a motor stator fixed to the stator assembly, a motor rotor fixed to the rotor assembly, and a radial motor gap between the stator and the rotor; the pump being a mixed flow pump, the impeller directing a primary flow from the fluid inlet to exit the pump through the fluid outlet at an intermediate angle having both axial and radial components, the primary flow flowing along an outside diameter of the motor, the pressure rise of the pump directing a wash flow through the motor gap.
A pharmaceutical composition consisting of an effective amount of plasminogen and pharmaceutical carrier, excipient or stabilizer for use in a method for preventing and/or treating retinopathy caused by diabetes mellitus in a subject, wherein the plasminogen has an amino acid sequence having at least 90% sequence identity with the amino acid sequence as shown in SEQ ID No. 2, and still has the plasminogen activity.
A gland packing comprising: - a packing base material of a predetermined length formed by braiding a plurality of yarns, characterized in that, the packing base material comprises a band-like flat braid braided by moving the plurality of yarns along one track and along one surface, - wherein the packing base material is shaped into a ring and then compressed and overlappingly folded in a width direction thereof. - a packing base material of a predetermined length formed by braiding a plurality of yarns, - wherein the packing base material is shaped into a ring and then compressed and overlappingly folded in a width direction thereof.
A method of determining responsiveness of a subject with a cancer to 2X-121 or a pharmaceutically acceptable salt thereof comprising: (a) contacting a tumor sample from the subject comprising nucleic acid molecules with a device comprising: (i) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of sensitivity selected from the biomarkers of Table 2, wherein the one or more biomarkers includes SRSF7 (SEQ ID NO: 1); and optionally (ii) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of resistance selected from the biomarkers of Table 3; and (b) measuring hybridization between the nucleic acid molecules from the tumor sample and the single-stranded nucleic acid molecules of the device to detect a level of expression of the one or more biomarkers of sensitivity, wherein the one or more biomarkers includes SRSF7 (SEQ ID NO: 1) and optionally the one or more biomarkers of resistance. (a) contacting a tumor sample from the subject comprising nucleic acid molecules with a device comprising: (i) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of sensitivity selected from the biomarkers of Table 2, wherein the one or more biomarkers includes SRSF7 (SEQ ID NO: 1); and optionally (ii) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of resistance selected from the biomarkers of Table 3; and (i) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of sensitivity selected from the biomarkers of Table 2, wherein the one or more biomarkers includes SRSF7 (SEQ ID NO: 1); and optionally (ii) single-stranded nucleic acid molecules capable of specifically hybridizing with the nucleotides of one or more biomarkers of resistance selected from the biomarkers of Table 3; and (b) measuring hybridization between the nucleic acid molecules from the tumor sample and the single-stranded nucleic acid molecules of the device to detect a level of expression of the one or more biomarkers of sensitivity, wherein the one or more biomarkers includes SRSF7 (SEQ ID NO: 1) and optionally the one or more biomarkers of resistance.
Apparatus to determine and/or monitor the volume flow and/or mass flow of a medium which flows through a vessel in a direction of flow, with - at least one ultrasonic converter (5, 6), which emits and/or receives ultrasonic measuring signals, and with - a control/evaluation unit which determines the volume flow and/or mass flow of the medium in the container using the ultrasonic measuring signals according to the time of flight principle or according to the Doppler principle, - wherein the control/evaluation unit comprises a microprocessor, an amplifier and an analog-to-digital converter, - wherein the microprocessor is designed in such a way that it intermittently operates the amplifier and/or the analog-to-digital converter in a measuring phase and a rest phase, wherein the microprocessor synchronizes the amplifier and/or the analog-to-digital converter that it/they is/are only active during a measuring phase and has/have reduced power consumption or is/are switched off during a rest phase, characterized in that the control/evaluation unit is designed in such a way that it determines the time of flight of the ultrasonic measuring signals using predefined system variables and/or process variables, and specifies the interval between two consecutive measuring phases and rest phases and/or the duration of the measuring phase and/or the duration of the rest phase either depending on the determined time of flight, or depending on the determined time of flight and depending on the energy available. - at least one ultrasonic converter (5, 6), which emits and/or receives ultrasonic measuring signals, and with - a control/evaluation unit which determines the volume flow and/or mass flow of the medium in the container using the ultrasonic measuring signals according to the time of flight principle or according to the Doppler principle, - wherein the control/evaluation unit comprises a microprocessor, an amplifier and an analog-to-digital converter, - wherein the microprocessor is designed in such a way that it intermittently operates the amplifier and/or the analog-to-digital converter in a measuring phase and a rest phase, wherein the microprocessor synchronizes the amplifier and/or the analog-to-digital converter that it/they is/are only active during a measuring phase and has/have reduced power consumption or is/are switched off during a rest phase,
A burner module in an air stream comprising a feed pipe of substantially circular cross section and having an axis, fuel injection orifices situated on the pipe and intended to produce a flame, oxidant injection orifices and fins arranged symmetrically with espect to a plane P of flow of the fuel upstream of the burner module and laterally on the pipe on each side of the fuel injection orifices, at least two fuel injection orifices in a section of the pipe that have an axis that makes an angle α with the plane of flow P of the fuel, and fins making an angle β with the plane P of flow of the fuel, characterized in that the angle α is between 10° and 30° inclusive and in that the angle β is between 2α and 3α.