mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system comprising: a fuel cell that generates electricity by using fuel and an oxidant gas; a housing that stores the fuel cell; a ventilation fan that causes an inside of the housing to be ventilated; a flow state detection switch that is arranged on a flow path of fluid which flows due to ventilation, a controller that controls at least the ventilation fan, wherein the controller controls quantity of drive of the ventilation fan, characterized in that the flow state detection switch outputs an ON signal if the fluid flows and outputs an OFF signal if the fluid does not flow, when the ventilation fan causes the inside of the housing to be ventilated and the controller includes a storage unit that stores a control command value of the ventilation fan as a switch control command value, the control command value of the ventilation fan corresponding to the quantity of drive of the ventilation fan when an output of the flow state detection switch is switched, and a setting unit that sets the minimum control command value of the ventilation fan based on the switch control command value stored in the storage unit. a fuel cell that generates electricity by using fuel and an oxidant gas; a housing that stores the fuel cell; a ventilation fan that causes an inside of the housing to be ventilated; a flow state detection switch that is arranged on a flow path of fluid which flows due to ventilation, a controller that controls at least the ventilation fan, wherein the controller controls quantity of drive of the ventilation fan, characterized in that the flow state detection switch outputs an ON signal if the fluid flows and outputs an OFF signal if the fluid does not flow, when the ventilation fan causes the inside of the housing to be ventilated and the controller includes a storage unit that stores a control command value of the ventilation fan as a switch control command value, the control command value of the ventilation fan corresponding to the quantity of drive of the ventilation fan when an output of the flow state detection switch is switched, and a setting unit that sets the minimum control command value of the ventilation fan based on the switch control command value stored in the storage unit.
A method for synchronizing frequency and/or timing in a wireless network, comprising: receiving a plurality of signals from a plurality of sources; determining whether a source from the plurality of sources is an anchor signal source based at least in part on an indication received from the source of the plurality of signals; determining a plurality of differences in a frequency and/or a timing between each of the plurality of signals and a respective one of a local frequency and/or a local timing; assigning a weight to each of the plurality of differences based in part on a type of each source of the plurality of sources; and adjusting the respective one of the local frequency and/or the local timing according to a weighted average difference computed based in part on a sum of the plurality of differences with the weight applied to each of the plurality of differences. receiving a plurality of signals from a plurality of sources; determining whether a source from the plurality of sources is an anchor signal source based at least in part on an indication received from the source of the plurality of signals; determining a plurality of differences in a frequency and/or a timing between each of the plurality of signals and a respective one of a local frequency and/or a local timing; assigning a weight to each of the plurality of differences based in part on a type of each source of the plurality of sources; and adjusting the respective one of the local frequency and/or the local timing according to a weighted average difference computed based in part on a sum of the plurality of differences with the weight applied to each of the plurality of differences.
A pane bracket for mounting components in a vehicle, said pane bracket comprising a casing having a pane-facing wall adapted to fix said pane bracket to a pane of said vehicle, characterized in that said pane-facing wall has at least one integrally formed and protruding gluing path surface for gluing the pane-facing wall to said pane and standoffs adapted to compensate tolerances between the gluing path surfaces and the pane,and said pane-facing wall of said casing comprises three spherical standoffs to provide a contact plane between the pane bracket and the vehicle's pane.
Movable flat unit for a building outer skin, wherein the unit includes a frame which at least partially defines a through-hole of the outer skin and at least one movably supported element which is movable between a closing position covering the through-hole and an open position at least partially uncovering the through-hole with a movement component (5; 6) formed as pull ropes and extended in parallel with the frame plane, characterised in that the or each movable element is held via at least two elastically extendible pull ropes (7; 8) or via at least two pull ropes with a round, elliptical, flat or other cross-section and also flat and ribbed belts or the like, wherein at least one pull rope (7; 8; 9; 10) partially forms in each case a composite consisting of a core rope and an outer rope surrounding the core rope, wherein the outer rope and/or the inner rope is elastically extendible and a delimiter is provided for the maximum extent.
An amplifier system, comprising: a predistorter configured to receive an input signal to be transmitted by the system; a first converter configured to receive an output of the predistorter to generate a preamplified signal; a power amplifier configured to receive the preamplified signal to generate an output signal based on the preamplified signal, wherein the output signal includes a first predistortion signal at a first frequency; and a second converter arranged to sample the output signal to generate a feedback signal using a timing signal with a second frequency that is lower than the first frequency; characterized in that the predistorter includes: a first filter(110.1) configured to receive the input signal and generate the first predistortion signal; a second filter (110.2) configured to receive the feedback signal and generate a second predistortion signal; a subtractor (110.3) configured to receive the outputs of the first and second filters to produce an error signal; and a controller(110.4) configured to receive the error signal and adjust the first and second filters. a predistorter configured to receive an input signal to be transmitted by the system; a first converter configured to receive an output of the predistorter to generate a preamplified signal; a power amplifier configured to receive the preamplified signal to generate an output signal based on the preamplified signal, wherein the output signal includes a first predistortion signal at a first frequency; and a second converter arranged to sample the output signal to generate a feedback signal using a timing signal with a second frequency that is lower than the first frequency; characterized in that the predistorter includes: a first filter(110.1) configured to receive the input signal and generate the first predistortion signal; a second filter (110.2) configured to receive the feedback signal and generate a second predistortion signal; a subtractor (110.3) configured to receive the outputs of the first and second filters to produce an error signal; and a controller(110.4) configured to receive the error signal and adjust the first and second filters. a first filter(110.1) configured to receive the input signal and generate the first predistortion signal; a second filter (110.2) configured to receive the feedback signal and generate a second predistortion signal; a subtractor (110.3) configured to receive the outputs of the first and second filters to produce an error signal; and a controller(110.4) configured to receive the error signal and adjust the first and second filters.
A preparation method of a nickel-lithium metal composite oxide powder formed of a nickel-lithium metal composite oxide represented by Formula, in which lithium carbonate is used as a lithium source, D 0.001 indicating a cumulative percentage particle diameter showing the particle distribution is 0.8 μm to 3.0 μm, D 10 is 2.0 μm to 5.0 μm, D 50 is 2.0 μm to 6.5 μm, D 90 is 5.5 μm to 12.0 μm, and D 100 is 10.0 μm to 20.0 μm, the method comprising: the following Step 1 and/or Step 1' and Step 2. (Step 1) A step of mixing a hydroxide of a metal M and/or an oxide of a metal M and lithium carbonate, with a precursor including a nickel hydroxide and/or a nickel oxide and a cobalt hydroxide and/or a cobalt oxide to obtain a mixture. (Step 1') A step of mixing lithium carbonate, with a precursor including a nickel hydroxide and/or a nickel oxide, a cobalt hydroxide and/or a cobalt oxide, and a hydroxide of a metal M and/or an oxide of a metal M to obtain a mixture. (Step 2) A step of firing the mixture obtained in Step 1 and/or Step 1' at a temperature of at least 500 °C and lower than a melting point of lithium carbonate to obtain a fired product, whereby the firing time is from 3 to 40 hours. Li a Ni 1 - x - y Co x M y O b · · · In Formula, relationships of 0.90 < a < 1.10, 1.7 < b < 2.2, 0.01 < x < 0.15, and 0.005 < y < 0.10 are satisfied, M represents metals which include Al as an essential element and may include elements selected from Mn, W, Nb, Mg, Zr, and Zn.)
A quilted panel comprising: a top lofted layer (24, 524); a bottom lofted layer (28, 528); at least one layer (26, 526) between the top (24, 524) and bottom (28, 528) lofted layers; spaced parallel stitch lines extending through the layers (24, 26, 28, 524, 526, 528), each of the stitch lines comprising multiple chain stitches (530, 532), each of the chain stitches (530, 532) extending through the layers (24, 26, 28, 524, 526, 528) and comprising two sides, a top and a bottom, wherein each of said sides extends through the layers and comprises a section of needle thread and the top comprises one section of the needle thread and the bottom comprises two sections of the needle thread, characterised in that none of the layers (24, 26, 28, 524, 526, 528) is compressed. a top lofted layer (24, 524); a bottom lofted layer (28, 528); at least one layer (26, 526) between the top (24, 524) and bottom (28, 528) lofted layers; spaced parallel stitch lines extending through the layers (24, 26, 28, 524, 526, 528), each of the stitch lines comprising multiple chain stitches (530, 532), each of the chain stitches (530, 532) extending through the layers (24, 26, 28, 524, 526, 528) and comprising two sides, a top and a bottom, wherein each of said sides extends through the layers and comprises a section of needle thread and the top comprises one section of the needle thread and the bottom comprises two sections of the needle thread, characterised in that none of the layers (24, 26, 28, 524, 526, 528) is compressed.
Crimp barrel prepared for crimping in order to crimp an electrical conductor of a predetermined diameter, wherein said crimp barrel comprises a crimp base that is disposed between two crimp wings and that is provided with a support region having a first curvature for said electrical conductor, wherein a respective region with a second curvature is disposed on both sides of said support region, wherein a curvature diameter of said second curvature is smaller than a curvature diameter of said first curvature, and wherein said crimp base is less rigid than said crimp wings, characterized in that said crimp base is curved end-to-end having said first curvature and in that said region having said second curvature is a respective section of said respective crimp wing respectively adjoining said crimp base.
A system, comprising: a transmitter element (105, 110, 115, 120, 125, 130) creating an interrogation signal and transmitting the interrogation signal; a receiver element (125, 130, 140, 150, 1551, 155Q, 180I, 180Q) receiving and demodulating a reflection signal of the interrogation signal and combining the reflection signal and a feedback signal to cancel at least a portion of radio frequency echo signals in the reflection signal, wherein the reflection signal comprises an error component comprising interrogation signal energy reflected from objects in an environment other than a radio frequency tag, and wherein the feedback signal comprises the at least a portion of radio frequency echo signals comprising the error component at lower frequencies than a data signal of interest; wherein the feedback signal is derived by isolating the error component of the reflection signal, and wherein the error component of the reflection signal is isolated by low pass filtering the reflection signal. a transmitter element (105, 110, 115, 120, 125, 130) creating an interrogation signal and transmitting the interrogation signal; a receiver element (125, 130, 140, 150, 1551, 155Q, 180I, 180Q) receiving and demodulating a reflection signal of the interrogation signal and combining the reflection signal and a feedback signal to cancel at least a portion of radio frequency echo signals in the reflection signal, wherein the reflection signal comprises an error component comprising interrogation signal energy reflected from objects in an environment other than a radio frequency tag, and wherein the feedback signal comprises the at least a portion of radio frequency echo signals comprising the error component at lower frequencies than a data signal of interest; wherein the feedback signal is derived by isolating the error component of the reflection signal, and wherein the error component of the reflection signal is isolated by low pass filtering the reflection signal.
Use of a liquid electrolyte in a fluoride ion battery, the liquid electrolyte comprising: a fluoride salt; an alkali metal amide salt having an alkali metal cation and an amide anion; and a glyme represented by general formula: R 1 -O(CH 2 CH 2 O) n -R 2 (in which R 1 and R 2 each independently represent an alkyl group with 4 or less carbon atoms or a fluoroalkyl group with 4 or less carbon atoms, and n is in the range of 2 to 10). a fluoride salt; an alkali metal amide salt having an alkali metal cation and an amide anion; and a glyme represented by general formula: R 1 -O(CH 2 CH 2 O) n -R 2 (in which R 1 and R 2 each independently represent an alkyl group with 4 or less carbon atoms or a fluoroalkyl group with 4 or less carbon atoms, and n is in the range of 2 to 10).
An organic electroluminescence device comprising: a pair of electrodes; and an organic layer between the pair of electrodes comprising a light-emitting layer and containing a compound represented by Formula: wherein R 1 to R 7 independently represent a hydrogen atom or a substituent with the proviso that at least one of R 1 to R 7 represents a deuterium atom or a substituent containing a deuterium atom; and at least one of R 2 and R 3 is an alkyl group bound to the compound via a tertiary or quaternary carbon atom or one of R 2 and R 3 represents a deuterium atom and the other is either a substituent or a deuterium atom. a pair of electrodes; and an organic layer between the pair of electrodes comprising a light-emitting layer and containing a compound represented by Formula: wherein R 1 to R 7 independently represent a hydrogen atom or a substituent with the proviso that at least one of R 1 to R 7 represents a deuterium atom or a substituent containing a deuterium atom; and at least one of R 2 and R 3 is an alkyl group bound to the compound via a tertiary or quaternary carbon atom or one of R 2 and R 3 represents a deuterium atom and the other is either a substituent or a deuterium atom.
An air curtain system for a container comprising: a host refrigeration unit; a first evaporator operably connected to the host refrigeration unit for positioning proximal to a door of the container; characterised by: a second evaporator operably connected to the host refrigeration unit; a duct configured to house the first evaporator and the second evaporator; an intake fan configured to pull air from the container into the duct; and a damper configured proximal to the second evaporator, wherein, in a first mode of operation, the damper is open and air is directed through the second evaporator to supply cooled air to an interior of the container, and wherein, in a second mode of operation, the damper is closed and air is directed through the first evaporator to generate an air curtain between the interior of the container and air external to the container. a host refrigeration unit; a first evaporator operably connected to the host refrigeration unit for positioning proximal to a door of the container; characterised by: a second evaporator operably connected to the host refrigeration unit; a duct configured to house the first evaporator and the second evaporator; an intake fan configured to pull air from the container into the duct; and a damper configured proximal to the second evaporator, wherein, in a first mode of operation, the damper is open and air is directed through the second evaporator to supply cooled air to an interior of the container, and wherein, in a second mode of operation, the damper is closed and air is directed through the first evaporator to generate an air curtain between the interior of the container and air external to the container. a second evaporator operably connected to the host refrigeration unit; a duct configured to house the first evaporator and the second evaporator; an intake fan configured to pull air from the container into the duct; and a damper configured proximal to the second evaporator, wherein, in a first mode of operation, the damper is open and air is directed through the second evaporator to supply cooled air to an interior of the container, and wherein, in a second mode of operation, the damper is closed and air is directed through the first evaporator to generate an air curtain between the interior of the container and air external to the container.
A method of decoding a depth block, the method comprising: receiving a syntax element that indicates a size of a sub-prediction unit, sub-PU, for motion parameter inheritance, MPI, in a depth prediction unit, depth PU, wherein the depth PU comprises one or more sub-PUs, wherein each sub-PU has a size equal to the size indicated by the syntax element, and wherein distinct motion information can be inherited for each sub-PU from a texture block co-located to the respective sub-PU; and upon receiving an index value that indicates that a MPI merge or skip candidate based on a sub-PU MPI mode can be utilized for motion prediction, inheriting motion information for each of the sub-PUs of the depth block based at least in part on corresponding texture blocks co-located with each of the sub-PUs. receiving a syntax element that indicates a size of a sub-prediction unit, sub-PU, for motion parameter inheritance, MPI, in a depth prediction unit, depth PU, wherein the depth PU comprises one or more sub-PUs, wherein each sub-PU has a size equal to the size indicated by the syntax element, and wherein distinct motion information can be inherited for each sub-PU from a texture block co-located to the respective sub-PU; and upon receiving an index value that indicates that a MPI merge or skip candidate based on a sub-PU MPI mode can be utilized for motion prediction, inheriting motion information for each of the sub-PUs of the depth block based at least in part on corresponding texture blocks co-located with each of the sub-PUs.
A salient pole machine comprising: a rotating field assembly including one or more rotor poles, windings, and coil support bars, and a curved outer diameter, a portion of the windings extending past the rotor poles; and at least one end coil cap connected to the rotating field assembly and enclosing the coil support bars and the portion of the windings extending past the rotor poles so as to reduce windage losses associated with the salient pole machine, the end coil cap having an outer diameter substantially equal to, or the same as, the outer diameter of the rotating field assembly, wherein the rotating field assembly includes an open air area between the rotor poles and winding supports. a rotating field assembly including one or more rotor poles, windings, and coil support bars, and a curved outer diameter, a portion of the windings extending past the rotor poles; and at least one end coil cap connected to the rotating field assembly and enclosing the coil support bars and the portion of the windings extending past the rotor poles so as to reduce windage losses associated with the salient pole machine, the end coil cap having an outer diameter substantially equal to, or the same as, the outer diameter of the rotating field assembly, wherein the rotating field assembly includes an open air area between the rotor poles and winding supports.
A fuel storage system for storing dimethylether, a blend including DME, or other similar highly volatile fuel on a vehicle, the fuel storage system comprising a main storage tank, an expansion tank, a fuel filling receptacle configured to receive a fuel filling nozzle of a filling station, and a valve arrangement having at least a normal operating setting and a fuel filling setting, wherein the valve arrangement in the normal operating setting provides a fuel passage between the main storage tank and the expansion tank, and wherein the valve arrangement in the fuel filling setting both provides a fuel passage between the fuel filling receptacle and the main storage tank and prevents fuel flow between the main storage tank and the expansion tank, characterized in that the fuel storage system comprises a mechanical locking device located adjacent the fuel filling receptacle and configured to selectively lock the fuel filling nozzle in the fuel filling receptacle, said mechanical locking device being configured to mechanically prevent disconnection of the fuel filling nozzle from the fuel filling receptacle unless the valve arrangement is in the normal operating setting, wherein the mechanical locking device controls the setting of the valve arrangement.
A control system for a forklift attachment, said system comprising: a) a regulator used for controlling load-clamping grippers; b) said regulator adjusting the grippers' clamping force to a predetermined initial level; c) said regulator being supplied with a signal from a slip sensor about load slippage between the clamping grippers; d) a signal arriving in said regulator for adjusting the clamping force to a higher initial level; characterized in that e) said regulator adjusting automatically, if necessary, the grippers' clamping force to a predetermined second, higher initial level; f) said regulator being supplied with a signal from a slip sensor about load slippage and required further clamping throughout an entire lift and transfer of the load. a) a regulator used for controlling load-clamping grippers; b) said regulator adjusting the grippers' clamping force to a predetermined initial level; c) said regulator being supplied with a signal from a slip sensor about load slippage between the clamping grippers; d) a signal arriving in said regulator for adjusting the clamping force to a higher initial level; characterized in that e) said regulator adjusting automatically, if necessary, the grippers' clamping force to a predetermined second, higher initial level; f) said regulator being supplied with a signal from a slip sensor about load slippage and required further clamping throughout an entire lift and transfer of the load.