mhurhangee/ep-ind-claims huggingface dataset:
A system for producing geothermal energy comprising a. a pressure-tight cooling reservoir and a lower situated pressure-tight rock cavity serving as a heat reservoir, wherein an increased temperature and optionally an increased pressure is present in the heat reservoir compared with the cooling reservoir, wherein the heat reservoir is a pressure-tight natural or artificial salt rock cavity, b. an injection line through which a liquid energy exchange medium present in the cooling reservoir can be fed to the heat reservoir, c. a riser line through which the energy exchange medium, which has changed to its gaseous or supercritical aggregate state, can be returned from the heat reservoir to the cooling reservoir, wherein the riser line comprises a device for energy conversion, characterized in that the cooling reservoir is a pressure-tight natural or artificial salt rock cavity. a. a pressure-tight cooling reservoir and a lower situated pressure-tight rock cavity serving as a heat reservoir, wherein an increased temperature and optionally an increased pressure is present in the heat reservoir compared with the cooling reservoir, wherein the heat reservoir is a pressure-tight natural or artificial salt rock cavity, wherein an increased temperature and optionally an increased pressure is present in the heat reservoir compared with the cooling reservoir, wherein the heat reservoir is a pressure-tight natural or artificial salt rock cavity, b. an injection line through which a liquid energy exchange medium present in the cooling reservoir can be fed to the heat reservoir, c. a riser line through which the energy exchange medium, which has changed to its gaseous or supercritical aggregate state, can be returned from the heat reservoir to the cooling reservoir,
A processor configured to control a first base station in a 3GPP communication system, the processor included in a controller of the first base station, and the processor being configured to control the first base station to: manage a first cell, transmit to a radio terminal a message for starting a handover from the first cell to a second cell, wherein the processor is configured to control the first base station to include sidelink configuration information into the message for the radio terminal to perform a Vehicle-to-Vehicle, V2V, sidelink communication interrupted by reception of the message, before completion of the handover, and the sidelink configuration information includes synchronization configuration information for the radio terminal to transmit a synchronization signal in the V2V sidelink communication and resource pool information indicating a resource pool used for the radio terminal to perform the V2V sidelink communication, the processor is configured to control the first base station to include the sidelink configuration information into the message when the radio terminal performs the V2V sidelink communication. manage a first cell, transmit to a radio terminal a message for starting a handover from the first cell to a second cell, wherein the processor is configured to control the first base station to include sidelink configuration information into the message for the radio terminal to perform a Vehicle-to-Vehicle, V2V, sidelink communication interrupted by reception of the message, before completion of the handover, and the sidelink configuration information includes synchronization configuration information for the radio terminal to transmit a synchronization signal in the V2V sidelink communication and resource pool information indicating a resource pool used for the radio terminal to perform the V2V sidelink communication, the processor is configured to control the first base station to include the sidelink configuration information into the message when the radio terminal performs the V2V sidelink communication.
A leak probability analysis apparatus associated with a utility distribution system having sensors, the apparatus comprising: a receiver to receive spectral recording data associated with spectral recordings measured at the sensors; a storage device to store the spectral recording data; and a processor to: calculate spectral energies associated with the spectral recording data, calculate deviations of the spectral energies, normalize the spectral energies based on the respective deviations, generate a leak probability distribution of the utility distribution system based on the normalized spectral energies characterized in that the processor is further configured to filter the leak probability distribution via a Gaussian filter to generate a two-dimensional(2-D) heat map associated with the leak probability distribution, and calculate a position of a leak based on the leak probability distribution with known utility system geographic data, overlay additional 2-D data including one or more of traffic density data, typical noise level distribution, and temperature gradients on the probability distribution. a receiver to receive spectral recording data associated with spectral recordings measured at the sensors; a storage device to store the spectral recording data; and a processor to: calculate spectral energies associated with the spectral recording data, calculate deviations of the spectral energies, normalize the spectral energies based on the respective deviations, generate a leak probability distribution of the utility distribution system based on the normalized spectral energies characterized in that the processor is further configured to filter the leak probability distribution via a Gaussian filter to generate a two-dimensional(2-D) heat map associated with the leak probability distribution, and calculate a position of a leak based on the leak probability distribution with known utility system geographic data, overlay additional 2-D data including one or more of traffic density data, typical noise level distribution, and temperature gradients on the probability distribution. calculate spectral energies associated with the spectral recording data, calculate deviations of the spectral energies, normalize the spectral energies based on the respective deviations, generate a leak probability distribution of the utility distribution system based on the normalized spectral energies characterized in that the processor is further configured to filter the leak probability distribution via a Gaussian filter to generate a two-dimensional(2-D) heat map associated with the leak probability distribution, and calculate a position of a leak based on the leak probability distribution with known utility system geographic data, overlay additional 2-D data including one or more of traffic density data, typical noise level distribution, and temperature gradients on the probability distribution.
An energy storage device comprising: a bipolar conductive substrate having a first side coupled to a first ubstack and a second side coupled to a second substack the first and second substacks comprising: a plurality of alternately stacked positive and negative monopolar electrode units, each respective monopolar electrode unit comprising a first active material electrode layer and a second active material electrode layer on opposing sides of a conductive pathway; and a separator provided between adjacent monopolar electrode units, wherein conductive pathways of the positive monopolar electrode units are electronically coupled to form a positive tabbed current bus, and conductive pathways of the negative monopolar electrode units are electronically coupled to form a negative tabbed current bus; and wherein the negative tabbed current bus of the first substack is coupled to the first side of the bipolar conductive substrate and the positive tabbed current bus of the second substack is coupled to the second side of the bipolar conductive substrate. a bipolar conductive substrate having a first side coupled to a first ubstack and a second side coupled to a second substack the first and second substacks comprising: a plurality of alternately stacked positive and negative monopolar electrode units, each respective monopolar electrode unit comprising a first active material electrode layer and a second active material electrode layer on opposing sides of a conductive pathway; and a separator provided between adjacent monopolar electrode units, wherein conductive pathways of the positive monopolar electrode units are electronically coupled to form a positive tabbed current bus, and conductive pathways of the negative monopolar electrode units are electronically coupled to form a negative tabbed current bus; and a plurality of alternately stacked positive and negative monopolar electrode units, each respective monopolar electrode unit comprising a first active material electrode layer and a second active material electrode layer on opposing sides of a conductive pathway; and a separator provided between adjacent monopolar electrode units, wherein conductive pathways of the positive monopolar electrode units are electronically coupled to form a positive tabbed current bus, and conductive pathways of the negative monopolar electrode units are electronically coupled to form a negative tabbed current bus; and
A method of generating a look up mechanism for a GNSS satellite system, comprising: providing at a known position and orientation an antenna structure (102, 104, 106) having at least a first antenna and a second antenna positioned a known short distance apart; computing angles of arrival of GNSS satellite carrier signals with respect to vectors (V A) that extend between phase centers of one or more pairs of the antennas (102, 104); computing expected phase differences between the received GNSS satellite carrier signals at the antennas based on the computed angles of arrival; determining a measured carrier phase difference from carrier phase measurements at the antennas (102, 104); differencing the expected carrier phase difference from the measured phase difference to produce carrier phase difference error values; and recording the phase difference error values and corresponding angles of arrival; repeating steps through with different angles of arrival; and generating the lookup mechanism from the recorded phase difference error values and angles of arrival; characterised in further comprising: including in the lookup mechanism one or more lookup figures of merit that are based on the dispersions of phase difference error values at common angles of incidence, wherein the lookup mechanism for a given pair of antennas is generated by sorting the phase difference error data into table grid cells based on the angles of arrival, with the grid cell size being proportional to a gradient of the measured phase difference error where smaller grid cell sizes are utilized for higher gradients. providing at a known position and orientation an antenna structure (102, 104, 106) having at least a first antenna and a second antenna positioned a known short distance apart; computing angles of arrival of GNSS satellite carrier signals with respect to vectors (V A) that extend between phase centers of one or more pairs of the antennas (102, 104); computing expected phase differences between the received GNSS satellite carrier signals at the antennas based on the computed angles of arrival; determining a measured carrier phase difference from carrier phase measurements at the antennas (102, 104); differencing the expected carrier phase difference from the measured phase difference to produce carrier phase difference error values; and recording the phase difference error values and corresponding angles of arrival; repeating steps through with different angles of arrival; and generating the lookup mechanism from the recorded phase difference error values and angles of arrival;
A portable device (110, 210) configured to be connected to a battery pack (105, 205) via a connecting interface (115, 215), the battery pack (105, 205) comprising at least one battery cell (1051, 2051), and the portable device (110, 210) comprises: a control circuit (1102, 2102); a transmitting circuit (1101, 2101) for transmitting signals from the connecting interface (115, 215) to the control circuit (1102, 2102) or from the control circuit (1102, 2102) to the connecting interface (115, 215); and the control circuit (1102, 2102) coupled to the transmitting circuit (1101, 2101), for performing at least one control operation that is associated with the battery cell (1051, 2051) according to information that is transmitted from the battery pack (105, 205) to the portable device (110, 210), wherein the control circuit (1102, 2102) receives the information from the transmitting circuit (1101, 2101) via the connecting interface (115, 215), characterized in that the information comprises an interrupt event/signal transmitted from the battery pack (105, 205), and the control circuit (1102, 2102) performs the at least one control operation when receiving the interrupt event/signal, wherein the interrupt event/signal is a low voltage interrupt event/signal, and the control circuit (1102, 2102) controls a current used for charging the portable device from the battery cell (1051, 2051) to decrease the current when receiving the low voltage interrupt event/signal, so as to shut down the portable device (110, 210). a control circuit (1102, 2102); a transmitting circuit (1101, 2101) for transmitting signals from the connecting interface (115, 215) to the control circuit (1102, 2102) or from the control circuit (1102, 2102) to the connecting interface (115, 215); and the control circuit (1102, 2102) coupled to the transmitting circuit (1101, 2101), for performing at least one control operation that is associated with the battery cell (1051, 2051) according to information that is transmitted from the battery pack (105, 205) to the portable device (110, 210), wherein the control circuit (1102, 2102) receives the information from the transmitting circuit (1101, 2101) via the connecting interface (115, 215), characterized in that the information comprises an interrupt event/signal transmitted from the battery pack (105, 205), and the control circuit (1102, 2102) performs the at least one control operation when receiving the interrupt event/signal, wherein the interrupt event/signal is a low voltage interrupt event/signal, and the control circuit (1102, 2102) controls a current used for charging the portable device from the battery cell (1051, 2051) to decrease the current when receiving the low voltage interrupt event/signal, so as to shut down the portable device (110, 210).
Connecting rod for an internal combustion engine with variable compression, having an eccentric adjusting device in the connecting-rod body for the purposes of adjusting an effective connecting-rod length, wherein an adjustment travel of the eccentric adjustment device is adjustable by means of a switchover valve, wherein a valve housing of the switchover valve is axially secured in a bore of the connecting rod by means of one or more securing elements, and the switchover valve has a pick-off element which is arranged in the valve housing and which is selectively displaceable into a first switching position or a second switching position and is selectively lockable in the first or the second switching position (S1, S2), characterized in that the switchover valve is selectively arrestable in the first or the second switching position (S1, S2) by means of a detent element which is acted on by a spring element, wherein the detent element, arranged at least partially arranged in a recess of the pick-off element, is displaceable with the pick-off element in an axial direction in an axially delimited groove of the valve housing and interacts with a detent pin, wherein the detent pin, as a securing pin, is additionally provided as an axial securing means of the switchover valve.
A breathing assistance apparatus comprising: a flow generator; a humidifier chamber connected to the flow generator; a conduit connected to the flow generator, configured to provide a humidified flow of gas to a user via a user breathing interface connected to the conduit; and a display screen adapted to provide visual information to a user, wherein the apparatus is configured to monitor one or more characteristics of use, and upon an occurrence of a triggering event to provide a series of image frames to the display, the series of image frames depicting an animated action configured to instruct a user to make an adjustment to the apparatus based upon the animated action to address the occurrence of the triggering event wherein the breathing assistance apparatus is removably connectable to an oxygen supply, and wherein the triggering event comprises detecting a presence of a connected oxygen supply during disinfection mode. a flow generator; a humidifier chamber connected to the flow generator; a conduit connected to the flow generator, configured to provide a humidified flow of gas to a user via a user breathing interface connected to the conduit; and a display screen adapted to provide visual information to a user, wherein the apparatus is configured to monitor one or more characteristics of use, and upon an occurrence of a triggering event to provide a series of image frames to the display, the series of image frames depicting an animated action configured to instruct a user to make an adjustment to the apparatus based upon the animated action to address the occurrence of the triggering event wherein the breathing assistance apparatus is removably connectable to an oxygen supply, and wherein the triggering event comprises detecting a presence of a connected oxygen supply during disinfection mode.
Polymer concrete, characterized in that the polymer concrete mixture consists of ▪ 83 to 87 volume per cent of a filler or a filler mixture, ▪ 12.9 to 16.9 volume per cent of a resin-hardener-accelerator combination comprising at least one resin, a hardener or hardener mixture and an accelerator or accelerator mixture, and ▪ 0.1 to 0.5 volume per cent of at least one additive or 0.1 to 0.5 volume per cent of at least one additive and inhibitor, wherein the at least one additive is an organic additive having at least one conjugated double-bond system, wherein the resin-hardener-accelerator combination contains 1.2 to 2 volume per cent of hardener or hardener mixture and 0.8 to 1.8 volume per cent of accelerator or accelerator mixture, wherein the accelerator or accelerator mixture is a cobalt-amine accelerator, and wherein the filler or filler mixture is formed exclusively of uncleaned rock fragments and/or uncleaned rock flour and/or uncleaned and/or unclassified sand without additions of classified adjuvants, wherein the filler or filler mixture is admixed with or impure due to organic material. ▪ 83 to 87 volume per cent of a filler or a filler mixture, ▪ 12.9 to 16.9 volume per cent of a resin-hardener-accelerator combination comprising at least one resin, a hardener or hardener mixture and an accelerator or accelerator mixture, and ▪ 0.1 to 0.5 volume per cent of at least one additive or 0.1 to 0.5 volume per cent of at least one additive and inhibitor,
A high refractive index, high dispersion optical glass for precision molding, having a yield temperature (At) of at most 550 °C, refractive index (nd) of at least 1.83 and Abbe number (vd) of at most 26.0, which is represented, in term of atoms for making up the glass, by the following chemical composition (wt %): P 2 O 5 15 to 29 % B 2 O 3 0 to 2 % GeO 2 0 to 14 % sum of P 2 O 5 + B 2 O 3 + GeO 2 20 to 35 % Li 2 O 0 to 5 % Na 2 O 3 to 14 % K 2 O 0 to 9 % sum of Li 2 O + Na 2 O + K 2 O 5 to 15 % Nb 2 O 5 2 to 21.5 % Bi 2 O 3 36 to 60 % WO 3 0 to 5 % BaO 0 to 5 % In 2 O 3 0 to 7 %
A data transmission method, the method comprises the following actions performed by a terminal: when determining that a measured value of a channel busy ratio, CBR, of at least one carrier in a first carrier set is lower than a threshold, determining a target carrier from the at least one carrier, and transmitting target data by using the target carrier; when determining that the measured value of the CBR of each carrier in the first carrier set is higher than the threshold, determining the target carrier from the first carrier set, and transmitting the target data by using the target carrier; wherein the first carrier set is a carrier set corresponding to a target service to which the target data belongs, and wherein the first carrier set is also a carrier set mapped to target data priority of the target data. when determining that a measured value of a channel busy ratio, CBR, of at least one carrier in a first carrier set is lower than a threshold, determining a target carrier from the at least one carrier, and transmitting target data by using the target carrier; when determining that the measured value of the CBR of each carrier in the first carrier set is higher than the threshold, determining the target carrier from the first carrier set, and transmitting the target data by using the target carrier; wherein the first carrier set is a carrier set corresponding to a target service to which the target data belongs, and wherein the first carrier set is also a carrier set mapped to target data priority of the target data.
Method for the production of leather using one or more reaction products of (a) melamine (b) with at least one compound of formula I wherein R 1 is selected from hydrocarbon radicals with 10 to 5000 C atoms, unbranched or branched, saturated or with one to three C-C double bonds, and A 1 is selected from groups capable of reacting with amines. (a) melamine (b) with at least one compound of formula I wherein R 1 is selected from hydrocarbon radicals with 10 to 5000 C atoms, unbranched or branched, saturated or with one to three C-C double bonds, and A 1 is selected from groups capable of reacting with amines. wherein R 1 is selected from hydrocarbon radicals with 10 to 5000 C atoms, unbranched or branched, saturated or with one to three C-C double bonds, and A 1 is selected from groups capable of reacting with amines.