mhurhangee/ep-ind-claims huggingface dataset:
A device for measuring conductivity of a fluid, the device comprising: a chamber that includes: an inlet, an outlet, wherein the fluid enters the chamber through the inlet and flows out of the chamber through the outlet, an upper surface, and a lower surface that runs separate from the upper surface; and two electrodes located within the chamber and configured to measure electrical voltage in the fluid that enters the chamber through the inlet and flows out of the chamber through the outlet, characterized in that, moving along a length of the chamber from the inlet to the outlet or from the outlet to the inlet, a distance between the upper surface and the lower surface changes in at least one dimension of the chamber such that bubbles in the fluid are directed from a lower distance region to a higher distance region away from the electrodes and towards the outlet or inlet, wherein a greatest distance between the upper surface and the lower surface is in a part of the chamber other than where the electrodes are located. a chamber that includes: an inlet, an outlet, wherein the fluid enters the chamber through the inlet and flows out of the chamber through the outlet, an upper surface, and a lower surface that runs separate from the upper surface; and an inlet, an outlet, wherein the fluid enters the chamber through the inlet and flows out of the chamber through the outlet, an upper surface, and a lower surface that runs separate from the upper surface; and two electrodes located within the chamber and configured to measure electrical voltage in the fluid that enters the chamber through the inlet and flows out of the chamber through the outlet, characterized in that, moving along a length of the chamber from the inlet to the outlet or from the outlet to the inlet, a distance between the upper surface and the lower surface changes in at least one dimension of the chamber such that bubbles in the fluid are directed from a lower distance region to a higher distance region away from the electrodes and towards the outlet or inlet, wherein a greatest distance between the upper surface and the lower surface is in a part of the chamber other than where the electrodes are located.
An apparatus, comprising: a sampling port to admit a formation fluid sample; a vaporization section to convert some part of the formation fluid sample into a gas phase; and a receiving section comprising at least one of a diffusion section, a separation section, or a differentiation section to receive the gas phase from an injection port coupled to the vaporization section, and to provide differentiated gas components along a concentration gradient; a detector to provide data associated with the differentiated gas components, wherein the data is used to determine a fingerprint of the differentiated gas components; and a vacuum section to receive the differentiated gas components and to manage waste associated with the differentiated gas components, characterised in that the vacuum section comprises a reaction section coupled to a desiccant section. a sampling port to admit a formation fluid sample; a vaporization section to convert some part of the formation fluid sample into a gas phase; and a receiving section comprising at least one of a diffusion section, a separation section, or a differentiation section to receive the gas phase from an injection port coupled to the vaporization section, and to provide differentiated gas components along a concentration gradient; a detector to provide data associated with the differentiated gas components, wherein the data is used to determine a fingerprint of the differentiated gas components; and a vacuum section to receive the differentiated gas components and to manage waste associated with the differentiated gas components, characterised in that the vacuum section comprises a reaction section coupled to a desiccant section.
A photoelectric sensor, comprising an optical unit including a light projecting portion that emits light and/or a light receiving portion that detects light; a case body that accommodates the optical unit; and a sealing member that seals the optical unit; wherein the case body is formed by assembling a first member, which is formed to be hollow inside, with a second member to form a hollow accommodation space; the optical unit is disposed inside a package formed by molding the optical unit in the sealing material so that the optical unit is located inside the sealing member, and the package is accommodated in the accommodating space formed by the case body; wherein a gap is provided between a partial circumference of the package and the case body; characterized in that an adhesive or resin is provided in the gap. an optical unit including a light projecting portion that emits light and/or a light receiving portion that detects light; a case body that accommodates the optical unit; and a sealing member that seals the optical unit; wherein the case body is formed by assembling a first member, which is formed to be hollow inside, with a second member to form a hollow accommodation space; the optical unit is disposed inside a package formed by molding the optical unit in the sealing material so that the optical unit is located inside the sealing member, and the package is accommodated in the accommodating space formed by the case body; wherein a gap is provided between a partial circumference of the package and the case body; characterized in that an adhesive or resin is provided in the gap.
A method for coverage enhancement service mode selection, the method being performed by a wireless device, comprising: obtaining an indication to switch between a first coverage enhancement service mode and a second coverage enhancement service mode; providing (S 106) the indication in a request to a network node to switch between the first coverage enhancement service mode and the second coverage enhancement mode, wherein the indication is provided to the network node during a tracking area update procedure; obtaining a response to the request from the network node, the response granting the wireless device to switch between the first coverage enhancement service mode and the second coverage enhancement mode, wherein the response is obtained before selectively switching between the first coverage enhancement service mode and the second coverage enhancement service mode, and selectively switching (S 114) between the first coverage enhancement service mode and the second coverage enhancement service mode according to the indication. obtaining an indication to switch between a first coverage enhancement service mode and a second coverage enhancement service mode; providing (S 106) the indication in a request to a network node to switch between the first coverage enhancement service mode and the second coverage enhancement mode, wherein the indication is provided to the network node during a tracking area update procedure; obtaining a response to the request from the network node, the response granting the wireless device to switch between the first coverage enhancement service mode and the second coverage enhancement mode, wherein the response is obtained before selectively switching between the first coverage enhancement service mode and the second coverage enhancement service mode, and selectively switching (S 114) between the first coverage enhancement service mode and the second coverage enhancement service mode according to the indication.
Device for injecting a current into an electrical cable comprising a clamping device arranged to clamp and hold the electrical cable and exert a pressure on a lateral surface of the electrical cable in proximity to a face of the cable, a machining tool, means for driving and/or guiding the machining tool arranged so as to drill an axial cavity in the face of the cable inwards, an electrical circuit linked to a conductive object (60, 70) inserted into the axial cavity for the injection of the electrical current into the cable.
A device for reading/writing of at least one tag RFID carried by at least one object, comprising: - at least one cavity, called depositing cavity, for receiving said at least one object, said depositing cavity comprising: • at least one bottom wall and at least one side wall, • at least one RFID reading/writing means, and • at least one aperture, called insertion aperture, for depositing objects in said depositing cavity, formed substantially in a top part of said depositing cavity, - at least one wall, called protective wall, arranged around said insertion aperture, extending upwards from said insertion aperture and capable of attenuating waves between said depositing cavity and the outside, and - at least one opening, called access opening, for accessing said insertion aperture through said at least one protective wall. - at least one cavity, called depositing cavity, for receiving said at least one object, said depositing cavity comprising: • at least one bottom wall and at least one side wall, • at least one RFID reading/writing means, and • at least one aperture, called insertion aperture, for depositing objects in said depositing cavity, formed substantially in a top part of said depositing cavity, • at least one bottom wall and at least one side wall, • at least one RFID reading/writing means, and • at least one aperture, called insertion aperture, for depositing objects in said depositing cavity, formed substantially in a top part of said depositing cavity, - at least one wall, called protective wall, arranged around said insertion aperture, extending upwards from said insertion aperture and capable of attenuating waves between said depositing cavity and the outside, and - at least one opening, called access opening, for accessing said insertion aperture through said at least one protective wall.
A method for transmitting a device trigger message, comprising: receiving, by a short message service-service center, SMS-SC, a device trigger message that is sent by a machine type communications-inter-working function, MTC-IWF, and is from a service capability server, SCS, wherein the device trigger message comprises information that indicates validity time of the device trigger message; receiving, by the SMS-SC, a message that carries a trigger suppression timer and is sent by a serving node and when it is determined that the trigger suppression timer exists comparing, by the SMS-SC, the validity time with duration of the trigger suppression timer if the validity time is greater than the duration of the trigger suppression timer, sending, by the SMS-SC, the device trigger message to a user equipment, UE, after the trigger suppression timer times out; and if the validity time is not greater than the duration of the trigger suppression timer, sending, by the SMS-SC, a message to the first device and/or discarding, by the SMS-SC, the device trigger message, wherein the message is used to indicate that triggering is rejected, or transmission fails, or device triggering fails. receiving, by a short message service-service center, SMS-SC, a device trigger message that is sent by a machine type communications-inter-working function, MTC-IWF, and is from a service capability server, SCS, wherein the device trigger message comprises information that indicates validity time of the device trigger message; receiving, by the SMS-SC, a message that carries a trigger suppression timer and is sent by a serving node and when it is determined that the trigger suppression timer exists comparing, by the SMS-SC, the validity time with duration of the trigger suppression timer if the validity time is greater than the duration of the trigger suppression timer, sending, by the SMS-SC, the device trigger message to a user equipment, UE, after the trigger suppression timer times out; and if the validity time is not greater than the duration of the trigger suppression timer, sending, by the SMS-SC, a message to the first device and/or discarding, by the SMS-SC, the device trigger message, wherein the message is used to indicate that triggering is rejected, or transmission fails, or device triggering fails.
A method for culturing human embryonic stem (hES) cells, comprising: a) suspending the hES cells in a nutrient medium containing basic fibroblast growth factor (bFGF) at a concentration of at least 8 ng/mL; b) maintaining the cells in suspension substantially undifferentiated while culturing for at least 6 days wherein the culture does not comprise solid microparticles; c) changing the medium periodically; and d) splitting the culture from time to time so as to reduce cell density, wherein the hES cells maintain the full potential to differentiate into tissue types representing any of the three germ layers. a) suspending the hES cells in a nutrient medium containing basic fibroblast growth factor (bFGF) at a concentration of at least 8 ng/mL; b) maintaining the cells in suspension substantially undifferentiated while culturing for at least 6 days wherein the culture does not comprise solid microparticles; c) changing the medium periodically; and d) splitting the culture from time to time so as to reduce cell density,
A method implemented by a wireless transmit receive unit, WTRU, the method comprising: the WTRU transmitting capability information indicating a bandwidth capability of the WTRU; the WTRU receiving a radio resource control, RRC, connection reconfiguration message via a first frequency block, wherein the RRC connection reconfiguration message comprises a configuration for at least a second frequency block, the configuration for the second frequency block comprising frequency information for the second frequency block and bandwidth information for the second frequency block; the WTRU receiving a physical downlink control channel, PDCCH, transmission over the first frequency block, the PDCCH transmission comprising a downlink control information, DCI, message indicating that the WTRU activate the second frequency block; and the WTRU receiving a downlink transmission using the second frequency block based on the PDCCH transmission received via the first frequency block. the WTRU transmitting capability information indicating a bandwidth capability of the WTRU; the WTRU receiving a radio resource control, RRC, connection reconfiguration message via a first frequency block, wherein the RRC connection reconfiguration message comprises a configuration for at least a second frequency block, the configuration for the second frequency block comprising frequency information for the second frequency block and bandwidth information for the second frequency block; the WTRU receiving a physical downlink control channel, PDCCH, transmission over the first frequency block, the PDCCH transmission comprising a downlink control information, DCI, message indicating that the WTRU activate the second frequency block; and the WTRU receiving a downlink transmission using the second frequency block based on the PDCCH transmission received via the first frequency block.
A method, comprising: configuring a first hearing assistance device in a first ear of a wearer to communicate with a second hearing assistance device in a second ear of the wearer using wireless communication; sending a signal from the first hearing assistance device to the second hearing assistance device that can be relayed by an external wireless communication device; characterized by: determining whether quality of the communication between the first and second hearing assistance devices (200, 300) has fallen below a programmable threshold; and configuring the external wireless communication device to relay communication between the first and second hearing assistance devices (200, 300) when the quality of the communication between the first and second hearing assistance devices (200, 300) is determined to have fallen below the programmable threshold. configuring a first hearing assistance device in a first ear of a wearer to communicate with a second hearing assistance device in a second ear of the wearer using wireless communication; sending a signal from the first hearing assistance device to the second hearing assistance device that can be relayed by an external wireless communication device; characterized by: determining whether quality of the communication between the first and second hearing assistance devices (200, 300) has fallen below a programmable threshold; and configuring the external wireless communication device to relay communication between the first and second hearing assistance devices (200, 300) when the quality of the communication between the first and second hearing assistance devices (200, 300) is determined to have fallen below the programmable threshold. determining whether quality of the communication between the first and second hearing assistance devices (200, 300) has fallen below a programmable threshold; and configuring the external wireless communication device to relay communication between the first and second hearing assistance devices (200, 300) when the quality of the communication between the first and second hearing assistance devices (200, 300) is determined to have fallen below the programmable threshold.
High-Mn steel comprising: a chemical composition containing, in mass%, C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; optionally at least one selected from the group consisting of Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; with the balance being Fe and inevitable impurities; and a microstructure having austenite as a matrix phase, wherein the area ratio of an austenite phase is 90 % or more, wherein the microstructure has a Mn segregation portion with a Mn concentration of 16 % or more and 38 % or less, and the high-Mn steel has an average Kernel Average Misorientation value of 0.3 or more, an absorbed energy in a Charpy impact test at -196 °C of 100 J or more, and a yield stress of 400 MPa or more, which are measured by the methods disclosed in the description. a chemical composition containing, in mass%, C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; C: 0.100 % or more and 0.700 % or less, Si: 0.05 % or more and 1.00 % or less, Mn: 20.0 % or more and 35.0 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: 0.005 % or less, and Nb: 0.005 % or less; optionally at least one selected from the group consisting of Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Ca: 0.0005 % or more and 0.0050 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less; with the balance being Fe and inevitable impurities; and a microstructure having austenite as a matrix phase, wherein the area ratio of an austenite phase is 90 % or more, wherein the microstructure has a Mn segregation portion with a Mn concentration of 16 % or more and 38 % or less, and the high-Mn steel has an average Kernel Average Misorientation value of 0.3 or more, an absorbed energy in a Charpy impact test at -196 °C of 100 J or more, and a yield stress of 400 MPa or more, which are measured by the methods disclosed in the description.
An augmented reality or mixed reality system comprising: a see-through near-eye display (3830, 3930) having a light source comprising light-emitting elements in optical communication with a micro-lens array, wherein the see-through near-eye display is configured for the wearer to see through the see-through near-eye display (3830, 3930) to view a real image and have light from the light emitting elements of the light source form a virtual image as seen by an eye of a wearer/user, wherein the see-through near-eye display (3830, 3930) is configured so that the bottom edge of the see-through near-eye display (3830, 3930) is located at or above a top edge of a pupil of the wearer/user when worn and the wearer/user is looking straight ahead with normal gaze, and, wherein when the wearer/user desires to experience augmented reality or mixed reality, the see-through near-eye display (3830, 3930) is configured for the wearer/user to tilt their chin down while keeping his or her eyes looking straight ahead to look through the see-through near-eye display (3830, 3930) so that the see-through near-eye display (3830, 3930) is then located in front of the pupil of the wearer/user and the wearer/user can see the real image and the virtual image. a see-through near-eye display (3830, 3930) having a light source comprising light-emitting elements in optical communication with a micro-lens array, wherein the see-through near-eye display is configured for the wearer to see through the see-through near-eye display (3830, 3930) to view a real image and have light from the light emitting elements of the light source form a virtual image as seen by an eye of a wearer/user, wherein the see-through near-eye display (3830, 3930) is configured so that the bottom edge of the see-through near-eye display (3830, 3930) is located at or above a top edge of a pupil of the wearer/user when worn and the wearer/user is looking straight ahead with normal gaze, and, wherein when the wearer/user desires to experience augmented reality or mixed reality, the see-through near-eye display (3830, 3930) is configured for the wearer/user to tilt their chin down while keeping his or her eyes looking straight ahead to look through the see-through near-eye display (3830, 3930) so that the see-through near-eye display (3830, 3930) is then located in front of the pupil of the wearer/user and the wearer/user can see the real image and the virtual image.
Stator or rotor of a large-diameter generator of a wind turbine, formed from a plurality of laminated-core segments composed of axially layered, rolled electrical metal sheets, which have been individually separated from one or more sheet-metal coils, wherein each metal sheet has a yoke with grooves and with teeth, wherein the teeth are connected by a yoke rear, wherein the yoke rear, in the region of at least some teeth on that side of the metal sheets which faces away from the grooves, has axially aligned recesses extending in the rolling direction of the sheet-metal coil, wherein the laminated-core segments are produced by bending the metal sheets, wherein the recesses are of slot-shaped, wedge-shaped, trapezoidal or rectangular form or are in the form of a keyhole notch, wherein, prior to the bending to optimize the flux guidance, the delimiting edges of the yoke rear are oriented perpendicularly to the rolling direction of the sheet-metal coil such that the teeth lie in the rolling direction, and wherein the recesses are arranged level with the teeth.
Oscillating tool having an oscillating drive which has a given deadweight and by which a work spindle can be driven about its longitudinal axis in rotating and oscillating fashion at a frequency of 5000 to 25000 oscillations per minute and at a pivot angle of 0.5 to 7 degrees, wherein the work spindle can be connected in form-locking fashion with a tool (24, 24a) equipped with a working surface for grinding and polishing, characterized in that the quotient of the working surface and the deadweight (in grams, without the tool) is at least 5.5 mm 2 /g, preferably at least 6.0 mm 2 /W, or preferably at least 7.0 mm 2 /g.