mhurhangee/ep-ind-claims huggingface dataset:
A method for ex-vivo culture expansion of mesenchymal stem cells (MSCs) from patients having osteoarthritis, osteoporosis, avascular necrosis, or other diseases of bone or cartilage, the method comprising: a) expanding the patient's MSCs with a culture medium comprising platelet lysate at a concentration of about 10% of the culture medium; b) determining whether the patient's MSCs of step a) are within a growth channel characterized by the following parameters: (i) a doubling time of 1 to 3 days; (ii) a cell density within a range of about 18 to about 23 calculated according to the equation Surface area * (% confluence) divided by cell number; (iii) even distribution of MSCs as a monolayer culture; and (iv) a spindle-shaped cellular morphology in monolayer culture; and c) adjusting the culture medium in the following passages, wherein the MSCs are outside of the scope of at least one parameter of step b) by increasing the amount of platelet lysate in the culture medium to between 15-20% platelet cell lysate; and wherein the patient's MSCs are expanded for no more than 10 ex-vivo passages. a) expanding the patient's MSCs with a culture medium comprising platelet lysate at a concentration of about 10% of the culture medium; b) determining whether the patient's MSCs of step a) are within a growth channel characterized by the following parameters: (i) a doubling time of 1 to 3 days; (ii) a cell density within a range of about 18 to about 23 calculated according to the equation Surface area * (% confluence) divided by cell number; (iii) even distribution of MSCs as a monolayer culture; and (iv) a spindle-shaped cellular morphology in monolayer culture; and (i) a doubling time of 1 to 3 days; (ii) a cell density within a range of about 18 to about 23 calculated according to the equation Surface area * (% confluence) divided by cell number; (iii) even distribution of MSCs as a monolayer culture; and (iv) a spindle-shaped cellular morphology in monolayer culture; and c) adjusting the culture medium in the following passages, wherein the MSCs are outside of the scope of at least one parameter of step b) by increasing the amount of platelet lysate in the culture medium to between 15-20% platelet cell lysate;
An inorganic gel, characterized in that the gel is based on (a) one or more aluminum compounds, (b) one or more compounds selected from inorganic carbonate compounds and inorganic bicarbonate compounds and (c) water, wherein a weight ratio (a): (b) is from 20: 1 to 2: 1.
A method of characterizing a specimen container, comprising: capturing multiple images of the specimen container from multiple viewpoints, the specimen container including a serum or plasma portion of a specimen therein; inputting image data from the multiple images to a segmentation convolutional neural network and processing the image data with the segmentation convolutional neural network to simultaneously output multiple label maps (537, 637, 737); inputting the multiple label maps to a classification convolutional neural network and processing the multiple label maps with the classification convolutional neural network; and outputting from the classification convolutional neural network a classification of the serum or plasma portion as being one or more of hemolytic, icteric, lipemic, or normal (540H, 5401, 540L, 540N), characterized in that the method further comprises stacking together a respective captured image from each viewpoint into a single image with additional channels corresponding to the number of viewpoints, wherein the image data from the multiple images comprises consolidated pixel or patch data from multiple exposures, and wherein the number of simultaneously output multiple label maps (537, 637, 737) corresponds to the number of multiple viewpoints. capturing multiple images of the specimen container from multiple viewpoints, the specimen container including a serum or plasma portion of a specimen therein; inputting image data from the multiple images to a segmentation convolutional neural network and processing the image data with the segmentation convolutional neural network to simultaneously output multiple label maps (537, 637, 737); inputting the multiple label maps to a classification convolutional neural network and processing the multiple label maps with the classification convolutional neural network; and outputting from the classification convolutional neural network a classification of the serum or plasma portion as being one or more of hemolytic, icteric, lipemic, or normal (540H, 5401, 540L, 540N), characterized in that the method further comprises stacking together a respective captured image from each viewpoint into a single image with additional channels corresponding to the number of viewpoints, wherein the image data from the multiple images comprises consolidated pixel or patch data from multiple exposures, and wherein the number of simultaneously output multiple label maps (537, 637, 737) corresponds to the number of multiple viewpoints.
A method performed in a first communication device for enabling device-to-device communication between the first communication device and a second communication device in a radio communications network using multiple transmission patterns; the method comprising: receiving a message from a control node, which message instructs the first communication device to multiplex control information for next data transmission with data in a first data transmission; transmitting a first scheduling assignment indicating a first transmission pattern from the first communication device to the second communication device; transmitting data in a first data transmission to the second communication device according to the first transmission pattern indicated by the transmitted first scheduling assignment; transmitting the control information multiplexed with the data to the second communication device, which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device,wherein the first transmission pattern is different than the second transmission pattern; and transmitting additional data to the second communication device according to the second transmission pattern in the next data transmission. receiving a message from a control node, which message instructs the first communication device to multiplex control information for next data transmission with data in a first data transmission; transmitting a first scheduling assignment indicating a first transmission pattern from the first communication device to the second communication device; transmitting data in a first data transmission to the second communication device according to the first transmission pattern indicated by the transmitted first scheduling assignment; transmitting the control information multiplexed with the data to the second communication device, which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device,wherein the first transmission pattern is different than the second transmission pattern; and transmitting additional data to the second communication device according to the second transmission pattern in the next data transmission.
Method for rotating a stack resting on a conveying surface about an axis perpendicular to the conveying plane, a restraining force acting counter to the conveying direction being caused to act against the underside of the stack on a longitudinal side and in the front area in the conveying direction, effecting a rotational movement as the stack is transported onward and, during the action of the restraining force, the stack being lifted on the longitudinal side on which the restraining force also acts, characterized in that an angular position is measured by means of an angle measuring device during the rotational movement of the stack.
A system (210, 320, 420, 540) for alternating current circuits for airfield lighting, comprising: a circuit comprising an isolation transformer (206-1, 206-2, 306, 406, 506); a protection hardware circuit (212-1, 212-2, 312, 412), coupled to the isolation transformer (206-1, 206-2, 306, 406, 506), wherein the protection hardware (212-1, 212-2, 312, 412) is adapted to prevent a voltage between an electrical contact of the circuit and a ground contact 203 from meeting or exceeding a threshold voltage; and a load (208-1, 208-2, 308, 408, 508) that when coupled to the protection hardware circuit (212-1, 212-2, 312, 412) receives electrical energy from the isolation transformer (206-1, 206-2, 306, 406, 506), characterized in that the protection hardware circuit includes a triple pole double throw relay (324, 424, 524) adapted to change a triple pole double throw pole from normally closed to normally open when an output of the isolation transformer (206-1, 206-2, 306, 406, 506) meets or exceeds the threshold voltage when the load (208-1, 208-2, 308, 408, 508) is decoupled from the protection hardware circuit (212-1, 212-2, 312, 412). a circuit comprising an isolation transformer (206-1, 206-2, 306, 406, 506); a protection hardware circuit (212-1, 212-2, 312, 412), coupled to the isolation transformer (206-1, 206-2, 306, 406, 506), wherein the protection hardware (212-1, 212-2, 312, 412) is adapted to prevent a voltage between an electrical contact of the circuit and a ground contact 203 from meeting or exceeding a threshold voltage; and a load (208-1, 208-2, 308, 408, 508) that when coupled to the protection hardware circuit (212-1, 212-2, 312, 412) receives electrical energy from the isolation transformer (206-1, 206-2, 306, 406, 506), characterized in that the protection hardware circuit includes a triple pole double throw relay (324, 424, 524) adapted to change a triple pole double throw pole from normally closed to normally open when an output of the isolation transformer (206-1, 206-2, 306, 406, 506) meets or exceeds the threshold voltage when the load (208-1, 208-2, 308, 408, 508) is decoupled from the protection hardware circuit (212-1, 212-2, 312, 412).
Method for reducing an amplitude noise AN originating from an RFID interrogator transmitter and appearing in a signal RS received by said RFID interrogator, said method being carried out when a signal TS transmitted by the RFID interrogator is a radiofrequency electromagnetic sine wave, characterized in that a contribution RSd AN of said amplitude noise AN to a demodulated received signal RSd within a frequency interval of a low-pass filter at an interrogator receiver output is determined by means of a measured demodulated transmitted signal TSd, obtained by means of a mixer (t S m) connected to the output of the interrogator transmitter through an attenuator circuit (ac), as RSd AN = k ⋅ TSd in that a direct-current component DC RS in the demodulated received signal RSd and a direct-current component DC TS in the demodulated transmitted signal TSd are measured and a conversion factor k is determined as k = DC RS / DC TS and that a receiver output signal 0 is continuously generated out of the received signal RS by subtracting said contribution RSd AN of the amplitude noise from the demodulated received signal RSd and filtering the signal RSd - k • TSd cleaned in said way by the low-pass filter and amplifying it.
A drinking glass (1, 1B, 1C, 1D, 1E) to serve distilled alcoholic drinks, comprising a bottom and a wall, whereby the wall comprises a choke at which the cross-sectional area of the wall is smaller than or as large as the area of the inside face of the bottom, and is smaller than the cross-sectional area of the wall at an upper edge of the wall, the wall having at least one formation (5, 5B, 5C, 5D, 5E, 5F) for the distilled alcoholic drink on an inside face of the wall, between the choke and the upper edge of the wall, the at least one formation being a recess or a projection on the inside face of the wall of the drinking glass, the drinking glass comprising a volume of the drinking glass between the bottom of the drinking glass and the lower side of the choke, which is dimensioned for a liquid phase of the distilled alcoholic drinks, and the cross-sectional area of the choke being arranged to restrict evaporation of the ethanol of the liquid phase drink beneath the choke into a gas phase above the choke, the drinking glass further comprising a second volume of the drinking glass between the choke and the upper edge, which second volume is arranged to the gas phase of the distilled alcoholic drinks, and said at least one formation being constituted by a recess to keep the drink on the formation, the second volume of the drinking glass being greater than the volume of the drinking glass between the bottom of the drinking glass and the lower side of the choke, and a height of the drinking glass between the upper edge and the choke being greater than a height of the drinking glass between the choke and the bottom.
A user equipment, UE, for communication in a wireless network supporting inter-EUTRAN Node B carrier aggregation, the UE comprising: a receiver to receive first downlink data from a first EUTRAN Node B, eNB, corresponding to a primary cell, PCell, in the wireless network and to receive second downlink data from a second eNB corresponding to a secondary cell, SCell, in the wireless network; a processor configured to, in response to receiving the first downlink data, generate a first hybrid automatic repeat request acknowledgement, HARQ-ACK, for the PCell, in response to receiving the second downlink data generate a second HARQ-ACK, for the SCell and further configured to select between use of a first physical uplink control channel, PUCCH, resource in the PCell and a second PUCCH resource in the SCell; and a transmitter configured to transmit, through the selected PUCCH resource, uplink control information, including the second HARQ-ACK for the SCell. a processor configured to, in response to receiving the first downlink data, generate a first hybrid automatic repeat request acknowledgement, HARQ-ACK, for the PCell, in response to receiving the second downlink data generate a second HARQ-ACK, for the SCell and further configured to select between use of a first physical uplink control channel, PUCCH, resource in the PCell and a second PUCCH resource in the SCell; and a transmitter configured to transmit, through the selected PUCCH resource, uplink control information, including the second HARQ-ACK for the SCell.
Device which has, for the production of hollow bodies from a glass melt, at least one segment serving to mold the hollow body as part of a rotary indexing table, at least one working element and at least one supply device, characterized in that the at least one segment and/or the at least one working element are supplied by at least one supply device rotating together with the base plate, and in that the segment is configured in the form of a support structure for one or more of the working elements being a blank mold, a pressing device, a blowing device, a combined press-and-blow device, a neck ring, a plunger, a ground station, a finishing mold or a robot as well as for the supply device, wherein the supply device is designed to provide water and/or a vacuum and/or cooling air and/or compressed air and/or electricity.
A wireless communication method between a plurality of end-points and a plurality of base stations, comprising: sending a message by a transmitter including a preamble modulated according to a chirp spread spectrum format, and a body comprising data modulated with a narrower bandwidth than the preamble, the data rates of the preamble and of the body being related to one another, receiving said message in a receiver, detecting said chirp spread-spectrum preamble aligning a local time reference of the receiver to the time reference of the transmitter by means of said chirp spread-spectrum preamble searching the narrow-band signal in said body based on the relationship between data rates of the preamble and of the body, demodulating said body. sending a message by a transmitter including a preamble modulated according to a chirp spread spectrum format, and a body comprising data modulated with a narrower bandwidth than the preamble, the data rates of the preamble and of the body being related to one another, receiving said message in a receiver, detecting said chirp spread-spectrum preamble aligning a local time reference of the receiver to the time reference of the transmitter by means of said chirp spread-spectrum preamble searching the narrow-band signal in said body based on the relationship between data rates of the preamble and of the body, demodulating said body.
A tape cassette intended to be inserted in a cassette housing portion of a tape printer having a guide shaft standing upward in the cassette housing portion, the tape cassette comprising: a generally rectangular box-like housing having a top wall, a bottom wall, and a side wall defining a periphery of the housing; first and second cavities (64 and 47) extending from the bottom wall and disposed between a tape containing area and the periphery at opposite ends of a diagonal of the generally rectangular box-like housing, the tape containing area being defined within the periphery, and the diagonal connecting a first comer portion and a second comer portion of the generally rectangular box-like housing; at least one tape (55, 57, 58, 59) wound and mounted within the housing in the tape containing area, the at least one tape including a first tape (55, 57, 58) disposed in a first area, the first tape (55, 57, 58) having a hole at a center of winding, and the first area being one of two areas (30C and 30D) formed by dividing the housing with respect to a line connecting the first and second cavities (64 and 47); a tape feed roller that has a cylindrical shape, that is rotatably disposed between the top wall and the bottom wall adapted to draw out the at least one tape (55, 57, 58, 59), and that has an insert hole opening in the bottom wall via the first cavity; and a third cavity that extends in the hole of the first tape (55, 57, 58) from the bottom wall, wherein the second cavity is suitable to have the guide shaft of the tape printer inserted in the second cavity, characterized in that the second cavity is formed as a through-hole or as a groove formed in the side wall that in both cases extend through the top wall and the bottom wall at respective positions opposing each other in a vertical direction of the housing. a generally rectangular box-like housing having a top wall, a bottom wall, and a side wall defining a periphery of the housing; first and second cavities (64 and 47) extending from the bottom wall and disposed between a tape containing area and the periphery at opposite ends of a diagonal of the generally rectangular box-like housing, the tape containing area being defined within the periphery, and the diagonal connecting a first comer portion and a second comer portion of the generally rectangular box-like housing; at least one tape (55, 57, 58, 59) wound and mounted within the housing in the tape containing area, the at least one tape including a first tape (55, 57, 58) disposed in a first area, the first tape (55, 57, 58) having a hole at a center of winding, and the first area being one of two areas (30C and 30D) formed by dividing the housing with respect to a line connecting the first and second cavities (64 and 47); a tape feed roller that has a cylindrical shape, that is rotatably disposed between the top wall and the bottom wall adapted to draw out the at least one tape (55, 57, 58, 59), and that has an insert hole opening in the bottom wall via the first cavity; and a third cavity that extends in the hole of the first tape (55, 57, 58) from the bottom wall,
A process for treating produced water comprising one or more water soluble polymers, said process comprising: degrading at least a portion of the one or more water soluble polymers by adding to the produced water at least one iron complex that comprises an iron compound and a complexing agent, wherein: (a) said one or more water soluble polymers comprise at least one acrylamide (co) polymer; (b) said iron compound comprises iron sulfate, ferrous sulfate heptahydrate, or iron chloride; and (c) said complexing agent comprises citric acid, ethylenediaminetetraacetic acid (EDTA), or nitrilotriacetic acid; said process further comprising adding at least one quenching agent to the produced water, wherein said quenching agent comprises sodium sulfite, sodium thiosulfate, ammonium bisulfite, hydroquinone, or a combination or mixture thereof, and wherein adding the at least one quenching agent results in: (i) slowing, decreasing, preventing, inhibiting and/or stopping the degradation of the one or more water soluble polymers; or (ii) stabilizing or increasing the viscosity of the produced water. (a) said one or more water soluble polymers comprise at least one acrylamide (co) polymer; (b) said iron compound comprises iron sulfate, ferrous sulfate heptahydrate, or iron chloride; and (c) said complexing agent comprises citric acid, ethylenediaminetetraacetic acid (EDTA), or nitrilotriacetic acid; (i) slowing, decreasing, preventing, inhibiting and/or stopping the degradation of the one or more water soluble polymers; or (ii) stabilizing or increasing the viscosity of the produced water.
Method for operating a synchronous machine, characterized by the steps of: identifying a respective difference value between the rotor inductance L d of the synchronous machine in the polar axis direction and the rotor inductance L q of the synchronous machine in the interpolar axis direction for a multiplicity of different 2-tuples from useful energization values (Id; Iq) set in the coordinate system (d, q) of the synchronous machine, which coordinate system is fixed to the rotor; compiling a characteristic map for the identified difference values (ΔL1; ΔL2; ΔL3; ΔL4) depending on the 2-tuples of the useful energization values (Id; Iq); determining a torque-dependent operating point trajectory for the 2-tuples of the useful energization values (Id; Iq) taking into account the level of the identified difference values along the operating point trajectory to be determined; and operating the synchronous machine in accordance with the determined operating point trajectory. identifying a respective difference value between the rotor inductance L d of the synchronous machine in the polar axis direction and the rotor inductance L q of the synchronous machine in the interpolar axis direction for a multiplicity of different 2-tuples from useful energization values (Id; Iq) set in the coordinate system (d, q) of the synchronous machine, which coordinate system is fixed to the rotor; compiling a characteristic map for the identified difference values (ΔL1; ΔL2; ΔL3; ΔL4) depending on the 2-tuples of the useful energization values (Id; Iq); determining a torque-dependent operating point trajectory for the 2-tuples of the useful energization values (Id; Iq) taking into account the level of the identified difference values along the operating point trajectory to be determined; and operating the synchronous machine in accordance with the determined operating point trajectory.
Magneto-electric converter for converting a variation in a magnetic field into a potential difference between two electrical terminals (202, 203); the converter including a stack of a first layer made of a magnetostrictive material defining a reference plane, and of a second layer made of a piezoeletric material having a first polarization axis in the plane defined by the second layer parallel to the reference plane; the second layer comprising electrodes (23, 24); the converter being characterized in that it comprises: ∘ a support layer comprising the two electrical terminals (202, 203); ∘ the stack (100, 101) arranged on the support layer; ∘ means for electrically connecting the electrodes (23, 24) to the electrical terminals (202, 203). ∘ a support layer comprising the two electrical terminals (202, 203); ∘ the stack (100, 101) arranged on the support layer; ∘ means for electrically connecting the electrodes (23, 24) to the electrical terminals (202, 203).