mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communications, comprising: determining, at a user equipment, UE, to change one or more beamforming parameters for transmissions on a new beam wherein determining to change the one or more beamforming parameters is based on the UE receiving a command to change the one or more beamforming parameters, wherein the command indicates resources assigned for a power headroom report; determining a power headroom applicable to a transmission from the UE on the new beam; selecting a scheduled transmission during a time period after the command is implemented as the resources assigned for the power headroom report and wherein selecting the scheduled transmission is based on a priority of a transmission type of the scheduled transmission; and transmitting, in response to the change, the power headroom report based on the power headroom, the power headroom report being transmitted on the resources assigned for the power headroom report.. determining, at a user equipment, UE, to change one or more beamforming parameters for transmissions on a new beam wherein determining to change the one or more beamforming parameters is based on the UE receiving a command to change the one or more beamforming parameters, wherein the command indicates resources assigned for a power headroom report; determining a power headroom applicable to a transmission from the UE on the new beam; selecting a scheduled transmission during a time period after the command is implemented as the resources assigned for the power headroom report and wherein selecting the scheduled transmission is based on a priority of a transmission type of the scheduled transmission; and transmitting, in response to the change, the power headroom report based on the power headroom, the power headroom report being transmitted on the resources assigned for the power headroom report..
A system comprising: a plurality of tubes (706, 708, 710, 712, 714, 716, 718, 720) configured to transport a plurality of fluids comprising a first fluid (502, 802, 902) and a second fluid (602, 1002); a first dispense valve and a second dispense valve that are attached to corresponding tubes (712, 720), the first dispense valve and the second dispense valve configured to open when the first fluid is dispensed from a pump to a first outlet; a first recirculation valve and a second recirculation valve that are attached to respective tubes (714, 718), the first recirculation valve and the second recirculation valve configured to open when the second fluid is transported from the pump to a second outlet; and a meter (102, 1102) attached to a tube of the plurality of tubes that has an inlet section and an outlet section, the meter configured to measure properties of a fluid when the fluid flows through the tube, the fluid being one of the first fluid and the second fluid, the meter including a sensing device to sense reverse flow when the second fluid flows from the outlet section to the inlet section. a plurality of tubes (706, 708, 710, 712, 714, 716, 718, 720) configured to transport a plurality of fluids comprising a first fluid (502, 802, 902) and a second fluid (602, 1002); a first dispense valve and a second dispense valve that are attached to corresponding tubes (712, 720), the first dispense valve and the second dispense valve configured to open when the first fluid is dispensed from a pump to a first outlet; a first recirculation valve and a second recirculation valve that are attached to respective tubes (714, 718), the first recirculation valve and the second recirculation valve configured to open when the second fluid is transported from the pump to a second outlet; and a meter (102, 1102) attached to a tube of the plurality of tubes that has an inlet section and an outlet section, the meter configured to measure properties of a fluid when the fluid flows through the tube, the fluid being one of the first fluid and the second fluid, the meter including a sensing device to sense reverse flow when the second fluid flows from the outlet section to the inlet section.
A method of mimicking a physiological condition in vitro, the method comprising: adding a culture medium and at least one factor to a cell culture container; plating hepatocytes on at least one surface within the cell culture container; and indirectly applying a shear force upon the plated hepatocytes, the shear force resulting from flow of the culture medium induced by a flow device, the flow mimicking flow to which the hepatocytes are exposed in vivo in the physiological condition; wherein the concentration of the factor in the culture media for mimicking the physiological condition is within the in vivo concentration range of the factor observed in the physiological condition, wherein: the physiological condition comprises a physiological condition of the liver, the at least one factor comprises glucose, and the glucose is present in the culture medium at a concentration of 5 mM to 10mM and wherein the shear force is applied at a rate of 0.1 dynes/cm 2 to 3.0 dynes/cm 2. adding a culture medium and at least one factor to a cell culture container; plating hepatocytes on at least one surface within the cell culture container; and indirectly applying a shear force upon the plated hepatocytes, the shear force resulting from flow of the culture medium induced by a flow device, the flow mimicking flow to which the hepatocytes are exposed in vivo in the physiological condition; wherein the concentration of the factor in the culture media for mimicking the physiological condition is within the in vivo concentration range of the factor observed in the physiological condition, wherein: the physiological condition comprises a physiological condition of the liver, the at least one factor comprises glucose, and the glucose is present in the culture medium at a concentration of 5 mM to 10mM and wherein the shear force is applied at a rate of 0.1 dynes/cm 2 to 3.0 dynes/cm 2.
Method for determining a value characterizing a soil, which method comprises the following steps: a) detection or determination of parameters (P1, P2) in the form of a soil property and/or in the form of a response to a signal coupled into or applied to the soil, wherein each parameter (P1, P2) in itself is not yet typical of the value to be determined; b) production of a combination (P1|P2) of at least two of the parameters determined and/or detected; c) comparison of the combination (P1|P2) produced with corresponding parameter combinations ([P1|P2] i) which are stored in a database together with values ( i) assigned thereto and characterizing a soil, thus determining the stored parameter combination ([P1|P2] i) which best correlates with the parameter combination (P1|P2) produced; d) establishment of the soil characteristic value to be determined as the value ( i) which is assigned to the stored parameter combination ([P1|P2] i) determined as presenting the best correlation. a) detection or determination of parameters (P1, P2) in the form of a soil property and/or in the form of a response to a signal coupled into or applied to the soil, wherein each parameter (P1, P2) in itself is not yet typical of the value to be determined; b) production of a combination (P1|P2) of at least two of the parameters determined and/or detected; c) comparison of the combination (P1|P2) produced with corresponding parameter combinations ([P1|P2] i) which are stored in a database together with values ( i) assigned thereto and characterizing a soil, thus determining the stored parameter combination ([P1|P2] i) which best correlates with the parameter combination (P1|P2) produced; d) establishment of the soil characteristic value to be determined as the value ( i) which is assigned to the stored parameter combination ([P1|P2] i) determined as presenting the best correlation.
A razor cartridge connector comprising a. first and second arms, each arm comprising a fixed end, a terminal end, a first surface and a second surface opposed to the first surface, wherein the terminal end comprises a razor cartridge engagement member movable from a capture position for capturing a razor cartridge to a release position for releasing the razor cartridge; b. an activator comprising an activation element associated with each of the first and second arms for moving the first and second arms toward each other into the release position when the activator is activated; and c. a biasing member for biasing the arms outwardly into the capture position, wherein the activation element acts upon the first and second arms between the fixed end and the terminal end on the first surface of the arms and the biasing member acts upon the arms between the fixed end and the terminal end on the second surface of the arms, characterized in that the biasing member acting on the second surface of the first and second arms also biases the activation element acting on the first surface of the first and second arms to move the activator back to an activator rest position. a. first and second arms, each arm comprising a fixed end, a terminal end, a first surface and a second surface opposed to the first surface, wherein the terminal end comprises a razor cartridge engagement member movable from a capture position for capturing a razor cartridge to a release position for releasing the razor cartridge; b. an activator comprising an activation element associated with each of the first and second arms for moving the first and second arms toward each other into the release position when the activator is activated; and c. a biasing member for biasing the arms outwardly into the capture position, wherein the activation element acts upon the first and second arms between the fixed end and the terminal end on the first surface of the arms and the biasing member acts upon the arms between the fixed end and the terminal end on the second surface of the arms, characterized in that the biasing member acting on the second surface of the first and second arms also biases the activation element acting on the first surface of the first and second arms to move the activator back to an activator rest position.
A three-axis antenna comprising: a core made of ferrite; a bobbin for housing said core, said bobbin having a top flange and a bottom flange, both of which include four flange pieces (31a, 31b, 31c, 31d, 32a, 32b, 32c, 32d) at both ends of the winding column in the thickness direction of the core; a first coil and a second coil (41, 42) dividedly wound in spaces between the flange pieces (34ab, 34bc, 34cd, 34ad) to cross each other at the upper and lower surfaces of the bobbin; and a third coil dividedly wound at the periphery of the bobbin and between the top flange and the bottom flange, characterized by further comprising: first intermediate flanges (33x, 33y) formed in each of the spaces; and a second intermediate flange formed in the space between the top and the bottom flanges; wherein: the bobbin comprises a synthetic resin, and a metal terminal having a winding portion is implanted into the bottom flange. a core made of ferrite; a bobbin for housing said core, said bobbin having a top flange and a bottom flange, both of which include four flange pieces (31a, 31b, 31c, 31d, 32a, 32b, 32c, 32d) at both ends of the winding column in the thickness direction of the core; a first coil and a second coil (41, 42) dividedly wound in spaces between the flange pieces (34ab, 34bc, 34cd, 34ad) to cross each other at the upper and lower surfaces of the bobbin; and a third coil dividedly wound at the periphery of the bobbin and between the top flange and the bottom flange, characterized by further comprising: first intermediate flanges (33x, 33y) formed in each of the spaces; and a second intermediate flange formed in the space between the top and the bottom first intermediate flanges (33x, 33y) formed in each of the spaces; and a second intermediate flange formed in the space between the top and the bottom the bobbin comprises a synthetic resin, and a metal terminal having a winding portion is implanted into the bottom flange.
A label (10, 40, 70) comprising: a flexible substrate (22, 42); and a flexible circuit (20, 44) coupled to the flexible substrate, the flexible circuit including a power source (20g, 46), a microcontroller (20b, 48), one or more transceivers, and an antenna, characterized in that the flexible circuit further includes a plurality of sensors (20c-f, A-C, 50a-f), wherein the plurality of sensors is arranged in a 3D sensor geometry and comprises a first sensor placed on a first surface of an object, a second sensor placed on a second surface of the object, and a third sensor placed in a third surface of the object, and wherein the microcontroller is to: identify sensor readings in one or more signals from the plurality of sensors, and send the sensor readings to one or more of a central computer or a computer network via one or more standard wireless transmission protocols, wherein at least one of the sensor readings is sent in a push communication. a flexible substrate (22, 42); and a flexible circuit (20, 44) coupled to the flexible substrate, the flexible circuit including a power source (20g, 46), a microcontroller (20b, 48), one or more transceivers, and an antenna, characterized in that the flexible circuit further includes a plurality of sensors (20c-f, A-C, 50a-f), wherein the plurality of sensors is arranged in a 3D sensor geometry and comprises a first sensor placed on a first surface of an object, a second sensor placed on a second surface of the object, and a third sensor placed in a third surface of the object, and wherein the microcontroller is to: identify sensor readings in one or more signals from the plurality of sensors, and send the sensor readings to one or more of a central computer or a computer network via one or more standard wireless transmission protocols, wherein at least one of the sensor readings is sent in a push communication. identify sensor readings in one or more signals from the plurality of sensors, and send the sensor readings to one or more of a central computer or a computer network via one or more standard wireless transmission protocols, wherein at least one of the sensor readings is sent in a push communication.
A wireless microphone system including a microphone configured to transmit a transmission signal, which contains an audio signal and additional information for processing the audio signal, and a wireless receiver configured to receive the transmission signal and process the audio signal contained in the received transmission signal based on the additional information, the wireless microphone system comprising: a normal communication mode in which the microphone is configured to transmit a transmission signal including an audio signal and normal additional information, the normal additional information being commonly set as a default in the microphone and the wireless receiver, so that the wireless receiver extracts the audio signal based on detection of the normal additional information; a privacy setting mode in which the microphone is configured to randomly determine and save privacy additional information that differs from the normal additional information in the microphone and transmit a transmission signal including the normal additional information and the privacy additional information, so that the wireless receiver extracts the privacy additional information based on detection of the normal additional information to save the privacy additional information in the wireless receiver; and a privacy communication mode in which the microphone is configured to transmit a transmission signal including the audio signal and the privacy additional information saved in the microphone in the privacy setting mode, so that the wireless receiver extracts the audio signal based on detection of the privacy additional information saved in the privacy setting mode. a normal communication mode in which the microphone is configured to transmit a transmission signal including an audio signal and normal additional information, the normal additional information being commonly set as a default in the microphone and the wireless receiver, so that the wireless receiver extracts the audio signal based on detection of the normal additional information; a privacy setting mode in which the microphone is configured to randomly determine and save privacy additional information that differs from the normal additional information in the microphone and transmit a transmission signal including the normal additional information and the privacy additional information, so that the wireless receiver extracts the privacy additional information based on detection of the normal additional information to save the privacy additional information in the wireless receiver; and a privacy communication mode in which the microphone is configured to transmit a transmission signal including the audio signal and the privacy additional information saved in the microphone in the privacy setting mode, so that the wireless receiver extracts the audio signal based on detection of the privacy additional information saved in the privacy setting mode.
A method for handing over a user equipment, 'UE' from a donor access node to a target access node in a wireless communication network including a relay node and the user equipment, wherein the UE is configured to wirelessly communicate with the relay node, and wherein the relay node is configured to wirelessly communicate with the donor access node, the method comprising: receiving, by the donor access node, context information wirelessly from the relay node; and using, by the donor access node, the context information to identify data packets that belong to the UE for forwarding to the target access node, wherein the context information includes at least one of; a UE logical flow identifier; and relay node radio bearer configuration information. receiving, by the donor access node, context information wirelessly from the relay node; and using, by the donor access node, the context information to identify data packets that belong to the UE for forwarding to the target access node, wherein the context information includes at least one of; a UE logical flow identifier; and relay node radio bearer configuration information.
A portable machine for preparing beverages devoid of a water tank and comprising a casing having at least one side wall (21, 22), wherein the casing contains heating means to heat water, a tubing system for transporting water, a valve, a housing for a disposable container, the disposable container containing the product for preparing the desired beverage, wherein said valve comprises an upper half-valve and a lower half-valve, and wherein the portable machine comprises a carriage connected to the tubing system and adapted for housing said lower half-valve, characterized in that the carriage is movable between an operative position, in which it protrudes from the contour of the casing, and a resting position, in which it is arranged concealingly with respect to the contour of the casing.
A lamp assembly for a vehicle, intended to be mounted in a recess of a body of the vehicle, the lamp assembly having a housing and a securing system for securing the lamp assembly to the vehicle body, wherein the securing system is arranged in the housing and comprises: - a receiver capable of being coupled to a transmitter located inside the vehicle body, said receiver and said transmitter being part of a wireless power transfer device, the receiver being configured to power an electromagnet; characterized in that the securing system comprises: - at least one latch that is movable between a retracted position in which the latch is substantially fully located inside the housing, and a locking position in which the latch at least partially projects out from the housing to be able to engage in a cavity arranged in the recess of the vehicle body; - the electromagnet is capable, when powered, to attract a ferromagnetic member secured to the latch, in order to move the latch to the locking position; - a retaining system which, in an active state, is configured to retain the latch in the locking position and which can be released to an inactive state for allowing the latch to move to the retracted position. - at least one latch that is movable between a retracted position in which the latch is substantially fully located inside the housing, and a locking position in which the latch at least partially projects out from the housing to be able to engage in a cavity arranged in the recess of the vehicle body; - the electromagnet is capable, when powered, to attract a ferromagnetic member secured to the latch, in order to move the latch to the locking position; - a retaining system which, in an active state, is configured to retain the latch in the locking position and which can be released to an inactive state for allowing the latch to move to the retracted position.
A downhole tool for use in a borehole or well, comprising: a) a housing having a longitudinal axis; b) an X-ray source located in said housing, said X-ray source including an X-ray tube which generates X-rays capable of exiting said housing; c) a photon detector located in said housing and axially displaced from said X-ray source relative to said longitudinal axis, said photon detector comprising a microchannel plate and an anode coupled to said microchannel plate, or said photon detector being any other photon detector that provides a quality image; and d) shielding between said X-ray source and said photon detector, said shielding substantially blocking X-rays from directly reaching said detector from said X-ray source, said shielding defining a cavity for said photon detector; characterized by: said shielding defining a conical chamber adjacent said cavity, said conical chamber terminating in a radially directed pinhole through which X-rays generated by said X-ray source and scattered outside of said housing can reach said photon detector, said housing including a first window adjacent said pinhole which is transparent to photons returning from the borehole or well, said conical chamber and said pinhole being arranged to function as a camera obscura; and e) a rotor for rotating said housing so as to cause said radially directed pinhole to rotate and to obtain a 360 degree scan of the borehole or well.. a) a housing having a longitudinal axis; b) an X-ray source located in said housing, said X-ray source including an X-ray tube which generates X-rays capable of exiting said housing; c) a photon detector located in said housing and axially displaced from said X-ray source relative to said longitudinal axis, said photon detector comprising a microchannel plate and an anode coupled to said microchannel plate, or said photon detector being any other photon detector that provides a quality image; and d) shielding between said X-ray source and said photon detector, said shielding substantially blocking X-rays from directly reaching said detector from said X-ray source, said shielding defining a cavity for said photon detector; e) a rotor for rotating said housing so as to cause said radially directed pinhole to rotate and to obtain a 360 degree scan of the borehole or well..