mhurhangee/patent-ind-claim-en huggingface dataset:
A video module for a first multipoint control unit , configured to: receive a plurality of video streams from a first plurality of endpoints ; receive an input continuous presence video stream from a second multipoint control unit , wherein the input continuous presence video stream comprises video streams from selected endpoints from a second plurality of endpoints associated with the second multipoint control unit ; create an output continuous presence video stream comprising video streams received from the first plurality of endpoints and video streams from the input continuous presence video stream received from the second multipoint control unit ; and send the output continuous presence video stream toward an endpoint of the first plurality of endpoints . receive a plurality of video streams from a first plurality of endpoints ; receive an input continuous presence video stream from a second multipoint control unit , wherein the input continuous presence video stream comprises video streams from selected endpoints from a second plurality of endpoints associated with the second multipoint control unit ; create an output continuous presence video stream comprising video streams received from the first plurality of endpoints and video streams from the input continuous presence video stream received from the second multipoint control unit ; and send the output continuous presence video stream toward an endpoint of the first plurality of endpoints .
A safety apparatus for a lithium ion battery module characterized in that : a cell terminal collector plate is connected in series between a first terminal of a first battery cell and a second terminal of a second battery cell, the cell terminal collector plate having an open end and a closed end, the open end connected to the first terminal of the first battery cell and the closed end connected to the second terminal of the second battery cell, wherein a lithium ion battery module comprises at least the first battery cell and the second battery cell; and wherein during an expansion of the first battery cell or the second battery cell from cell degradation, the terminals of the battery cell having the degradation move and an open circuit condition is created between the first battery cell and the second battery cell by the open end of the cell terminal collector plate losing contact with the first terminal of the first battery cell. a cell terminal collector plate is connected in series between a first terminal of a first battery cell and a second terminal of a second battery cell, the cell terminal collector plate having an open end and a closed end, the open end connected to the first terminal of the first battery cell and the closed end connected to the second terminal of the second battery cell, wherein a lithium ion battery module comprises at least the first battery cell and the second battery cell; and wherein during an expansion of the first battery cell or the second battery cell from cell degradation, the terminals of the battery cell having the degradation move and an open circuit condition is created between the first battery cell and the second battery cell by the open end of the cell terminal collector plate losing contact with the first terminal of the first battery cell.
A method for separating or detecting a tumor cell and/or a cancer cell in a sample containing blood components, the method comprising: treating the sample by mixing the sample containing blood components with a liquid containing a surfactant A and a liquid containing a surfactant B, or with a liquid containing the surfactant A and the surfactant B, or treating the sample by mixing the sample containing blood components with a liquid containing a surfactant A in the absence of a fixation agent, wherein the surfactant A is a nonionic surfactant represented by General formula (I) below, and the surfactant B has a lytic property with respect to an erythrocyte higher than the lytic property of the surfactant A with respect to an erythrocyte: R 1 -O-(EO)n-R 2 (I) in the formula (I), R 1 is a hydrocarbon group having a branched chain and having a carbon number in the range of 12 to 40, EO is an oxyethylene group, n is an average addition mole number of EO in the range of 23 to 50, and R 2 is a hydrogen atom or a hydrocarbon group having a carbon number in the range of 1 to 3; and separating or detecting a tumor cell and/or a cancer cell from the treated sample. treating the sample by mixing the sample containing blood components with a liquid containing a surfactant A and a liquid containing a surfactant B, or with a liquid containing the surfactant A and the surfactant B, or treating the sample by mixing the sample containing blood components with a liquid containing a surfactant A in the absence of a fixation agent, wherein the surfactant A is a nonionic surfactant represented by General formula (I) below, and the surfactant B has a lytic property with respect to an erythrocyte higher than the lytic property of the surfactant A with respect to an erythrocyte: R 1 -O-(EO)n-R 2 (I) in the formula (I), R 1 is a hydrocarbon group having a branched chain and having a carbon number in the range of 12 to 40, EO is an oxyethylene group, n is an average addition mole number of EO in the range of 23 to 50, and R 2 is a hydrogen atom or a hydrocarbon group having a carbon number in the range of 1 to 3; and separating or detecting a tumor cell and/or a cancer cell from the treated sample.
A vibrating element meter configured to perform meter health verification, the vibrating element meter comprising: a sensor assembly including a vibrating member , a pickoff/detection sensor , and a driver configured to vibrate the vibrating member ; at least one temperature sensor ; and meter electronics coupled to the pickoff/detection sensor , the driver , and the at least one temperature sensor , with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor , characterized in that : the meter electronics is further configured to measure a sequence of sensor time periods using the sensor assembly , the sensor time period being the inverse of the resonant frequency of the vibrating member , determine an average temperature from the plurality of temperatures, determine an average sensor time period from the sequence of sensor time periods, compensate the average sensor time period using the average temperature to generate a compensated sensor time period, compare the compensated sensor time period to a reference sensor time period, and indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period. a sensor assembly including a vibrating member , a pickoff/detection sensor , and a driver configured to vibrate the vibrating member ; at least one temperature sensor ; and meter electronics coupled to the pickoff/detection sensor , the driver , and the at least one temperature sensor , with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor , characterized in that : the meter electronics is further configured to measure a sequence of sensor time periods using the sensor assembly , the sensor time period being the inverse of the resonant frequency of the vibrating member , determine an average temperature from the plurality of temperatures, determine an average sensor time period from the sequence of sensor time periods, compensate the average sensor time period using the average temperature to generate a compensated sensor time period, compare the compensated sensor time period to a reference sensor time period, and indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period.
A positive electrode active composition for a lithium ion battery comprising: a layered lithium metal oxide represented by the formula x Li 2 MnO 3 · (1-x) Li Ni u+Δ Mn u-Δ Co w A y O 2 , x is at least 0.03 and no more than 0.325, the absolute value of Δ is no more than 0.3, 2u+w+y is equal to 1, w is in the range from 0.24 to 0.475, u is in the range from 0.25 to 0.4 and y is in the range from 0 to 0.05 and where A is Mg, Sr, Ba, Cd, Zn, Al, Ga, B, Zr, Ti, Ca, Ce, Y, Nb, Cr, Fe, V or combinations thereof, wherein an optional fluorine dopant can replace no more than about 10 mole percent of the oxygen; and a stabilization coating, wherein the positive electrode active composition has an average voltage of at least 3.64 volts when cycled between 4.6 volts and 2.0 volts at a rate of C/10 at room temperature. a layered lithium metal oxide represented by the formula x Li 2 MnO 3 · (1-x) Li Ni u+Δ Mn u-Δ Co w A y O 2 , x is at least 0.03 and no more than 0.325, the absolute value of Δ is no more than 0.3, 2u+w+y is equal to 1, w is in the range from 0.24 to 0.475, u is in the range from 0.25 to 0.4 and y is in the range from 0 to 0.05 and where A is Mg, Sr, Ba, Cd, Zn, Al, Ga, B, Zr, Ti, Ca, Ce, Y, Nb, Cr, Fe, V or combinations thereof, wherein an optional fluorine dopant can replace no more than about 10 mole percent of the oxygen; and a stabilization coating, wherein the positive electrode active composition has an average voltage of at least 3.64 volts when cycled between 4.6 volts and 2.0 volts at a rate of C/10 at room temperature.
A method for producing a biomaterial scaffold, said method comprising: a) providing a hydrogel comprising a fibrin network and a polysaccharide network; b) subjecting the hydrogel of step a) to a freeze-thawing process to physically crosslink the hydrogel; and c) subjecting the physically cross-linked hydrogel obtained after conducting the step b), to a lyophilization. a) providing a hydrogel comprising a fibrin network and a polysaccharide network; b) subjecting the hydrogel of step a) to a freeze-thawing process to physically crosslink the hydrogel; and c) subjecting the physically cross-linked hydrogel obtained after conducting the step b), to a lyophilization.
A bimodal polyethylene composition comprising a low molecular weight polyethylene homopolymer fraction having a weight average molecular weight (Mw) from 25,000 to 60,000 g/mol and a high molecular weight polyethylene copolymer fraction having a weight average molecular weight from 200,000 to 1,200,000 g/mol, wherein the high molecular weight polyethylene copolymer fraction has a C 4 to C 10 α-olefin comonomer content from 0.25 to 3 mol%, wherein the content of the low molecular weight polyethylene with respect to the total amount of the bimodal polyethylene composition is from 40-65 wt%; and the bimodal polyethylene composition has a ratio of molecular weight distribution MWD 2/1 of more than 0.7, wherein MWD 2 / 1 = MWD copo / MWD homo with MWD copo being the molecular weight distribution of the high molecular weight polyethylene copolymer fraction and MWD homo being the molecular weight distribution of the low molecular weight polyethylene homopolymer fraction and a Mw 2/1 of more than 15, wherein Mw 2 / 1 = Mw copo / Mw homo wherein Mw copo is the weight average molecular weight of the high molecular weight polyethylene copolymer fraction and Mw homo is the weight average molecular weight of the low molecular weight polyethylene homopolymer fraction.
Dust collection unit for a robotic vacuum cleaner, comprising a collection container for collecting dust, a container lid for covering an emptying opening of the collection container and a filter element for separating dust, the filter element being arranged in a filter frame , the container lid being connected to the collection container via the filter frame in order to cover the emptying opening , the collection container comprising an air inlet opening and an air outlet opening , the filter element being arranged in the filter frame between the air inlet opening and the air outlet opening in an air flow of the robotic vacuum cleaner conveyed through the dust collection unit , characterised in that the air inlet opening is arranged in a first vertical side wall of the collection container and the air outlet opening is arranged in a second vertical side wall of the collection container , the filter element that forms a filter plane in the filter frame being arranged between the air inlet opening and the air outlet opening so as to be inclined to a horizontal plane and to a vertical direction .
A method of mitigating the effect of a security threat potentially contained in a digitally encoded document , the method comprising: extracting embedded content contained in the digitally encoded document, such that the digitally encoded document is translated into parts (20a-23a) which contain references to one another and do not contain embedded data; content-checking, by means of at least one hardware-implemented content-checker, at least one of the parts separately from the other parts (20a-22a) of the digitally encoded document, wherein the content checking of the parts is performed bottom-up such that an embedded part is checked before the part that contains the embedded part, and wherein type information generated by a content checker about a part already checked is supplied by a scheduler to a content checker checking a further part; and only after checking the outer level document part, recombining at least some of the parts (20a-23a) and releasing a version of the digitally encoded document responsive to the content-checking. extracting embedded content contained in the digitally encoded document, such that the digitally encoded document is translated into parts (20a-23a) which contain references to one another and do not contain embedded data; content-checking, by means of at least one hardware-implemented content-checker, at least one of the parts separately from the other parts (20a-22a) of the digitally encoded document, wherein the content checking of the parts is performed bottom-up such that an embedded part is checked before the part that contains the embedded part, and wherein type information generated by a content checker about a part already checked is supplied by a scheduler to a content checker checking a further part; and only after checking the outer level document part, recombining at least some of the parts (20a-23a) and releasing a version of the digitally encoded document responsive to the content-checking.
Multi-phase busbar for conducting electric energy, comprising a first conducting layer made of a sheet metal which is covered with a first insulating layer , a first conducting pin mounted to said first conducting layer which extends in a direction preferably perpendicular to the first conducting layer , a second conducting layer made of a sheet metal which is covered with a second insulating layer , said second conducting layer comprising a first pinhole through which said first conducting pin projects and a second conducting pin which extends in a direction parallel to said first conducting pin through said second insulating layer , wherein each of said conducting layers comprises a first and second connection area at its opposing end portions for electrically connecting said conducting layer to an electric power supply and/or a connecting area of a further multi-phase busbar , whereby said first and second insulating layers have a thickness of one millimeter to several millimeters, in particular 1 mm to 5 mm or more than 5 mm, and completely cover said sheet metal outside of said connecting areas , and that said first and second insulating layers are directly glued on top of each other.
A method for allocating communication resources to transmit data to multiple user mobile stations in a wireless communication system, comprising: allocating a dedicated channel to a particular user mobile station; characterized by : determining whether data to be transmitted to the particular user mobile station is present for an interval; and allocating resources of the dedicated channel for resources of a shared channel for the interval when the data to be transmitted to the particular user mobile station is not present for the interval; transmitting data to the particular user mobile station on the dedicated channel without allocating resources of the dedicated channel for resources of the shared channel for the interval when data to be transmitted is present for the interval. allocating a dedicated channel to a particular user mobile station; characterized by : determining whether data to be transmitted to the particular user mobile station is present for an interval; and allocating resources of the dedicated channel for resources of a shared channel for the interval when the data to be transmitted to the particular user mobile station is not present for the interval; transmitting data to the particular user mobile station on the dedicated channel without allocating resources of the dedicated channel for resources of the shared channel for the interval when data to be transmitted is present for the interval. determining whether data to be transmitted to the particular user mobile station is present for an interval; and allocating resources of the dedicated channel for resources of a shared channel for the interval when the data to be transmitted to the particular user mobile station is not present for the interval; transmitting data to the particular user mobile station on the dedicated channel without allocating resources of the dedicated channel for resources of the shared channel for the interval when data to be transmitted is present for the interval.
Vibrator with a curved housing adapted to the female anatomy and which comprises a front side with a front portion and has a rear portion wherein inside the housing there is an electric motor for generating vibrations, a power source , a control device, a memory device for storing data and a communications device for data communications exchange with an external device, wherein the rear portion is suitable for transferring vibrations generated by the electric motor to the body, wherein fastening means are provided for fastening the vibrator to an item of clothing, characterised in that the fastening means have a clamping mechanism and comprise a fastening plate which is releasably fastened on a fastening portion on the front side of the housing and which closes flush with the front portion , and that the housing has a connector element which is suitable for charging the power source . wherein inside the housing there is an electric motor for generating vibrations, a power source , a control device, a memory device for storing data and a communications device for data communications exchange with an external device, wherein the rear portion is suitable for transferring vibrations generated by the electric motor to the body, wherein fastening means are provided for fastening the vibrator to an item of clothing, characterised in that the fastening means have a clamping mechanism and comprise a fastening plate which is releasably fastened on a fastening portion on the front side of the housing and which closes flush with the front portion , and that the housing has a connector element which is suitable for charging the power source .
A combination of a lightning warning system and a lightning warning device, particularly for protecting people from lightning strike, the lightning warning device comprising: a stele , a warning device arranged at the stele for emitting a warning signal, a mounting device connected to the stele for detachably mounting the stele on a stationary structure, a receiver for receiving a lightning warning which includes a hazard potential for the location of the lightning warning device, and which is transmitted by the lightning warning system , and a control device communicating with the receiver , wherein the warning device is connected to the control device to emit the warning signal depending on the received lightning warning, and wherein the lightning warning system comprises lightning detectors , which are distributed across a region, and is adapted to make a prediction for the hazard potential for a lightning strike at the location of the lightning warning device on the basis of the location of a detected lightning and of the course by estimation. a stele , a warning device arranged at the stele for emitting a warning signal, a mounting device connected to the stele for detachably mounting the stele on a stationary structure, a receiver for receiving a lightning warning which includes a hazard potential for the location of the lightning warning device, and which is transmitted by the lightning warning system , and a control device communicating with the receiver , wherein the warning device is connected to the control device to emit the warning signal depending on the received lightning warning, and wherein the lightning warning system comprises lightning detectors , which are distributed across a region, and is adapted to make a prediction for the hazard potential for a lightning strike at the location of the lightning warning device on the basis of the location of a detected lightning and of the course by estimation.
A method of communicating data between a radio network infrastructure and a terminal device in a wireless telecommunications network, the method comprising: establishing at a radio network infrastructure element there is data available for communication between the radio network infrastructure and the terminal device; the method being characterized by : transmitting a paging message for the terminal device from the radio network infrastructure element, wherein the paging message comprises an indication of an identifier for the terminal device and an indication of a network allocated resource for use in subsequently communicating the data between the radio network infrastructure element and the terminal device; and communicating the data between the radio network infrastructure element and the terminal device using the network allocated resource. transmitting a paging message for the terminal device from the radio network infrastructure element, wherein the paging message comprises an indication of an identifier for the terminal device and an indication of a network allocated resource for use in subsequently communicating the data between the radio network infrastructure element and the terminal device; and communicating the data between the radio network infrastructure element and the terminal device using the network allocated resource.