mhurhangee/ep-ind-claims huggingface dataset:
A sealing material comprising: 20 to 70 wt% acrylate rubber component; 10 to 50 wt% rheological filler component; 5 to 40 wt% tackifier component; 5 to 30 wt% plasticizer component; 0.5 to 5 wt% antioxidant component; Up to 20 wt% dielectric filler component; and 5 to 20 wt% fluorinated thermoplastic component, wherein the fluorinated thermoplastic component is polytetrafluoroethylene and wherein polytetrafluoroethylene is in the form of powder. 20 to 70 wt% acrylate rubber component; 10 to 50 wt% rheological filler component; 5 to 40 wt% tackifier component; 5 to 30 wt% plasticizer component; 0.5 to 5 wt% antioxidant component; Up to 20 wt% dielectric filler component; and 5 to 20 wt% fluorinated thermoplastic component, wherein the fluorinated thermoplastic component is polytetrafluoroethylene and wherein polytetrafluoroethylene is in the form of powder.
A safety shower system (200, 300, 400) that maintains a temperature of water within a desired range using geothermal energy, comprising: a safety shower (220, 320, 420) through which at least a portion of a water buffer (212, 312, 412) can exit; comprising a conduit (210, 310, 410) containing the water bluffer such that the water buffer is maintained at a temperature of between 15 °C to 40 °C within the conduit as a direct function of a thermal inertia of the ground soil; characterized in that the conduit (210, 310, 410) is disposed under ground soil at a depth of at least 0.3 meters, the system further comprising a dead volume riser coupled to the conduit and configured to divert water that has a temperature of less than 15 °C or greater than 40 °C wherein the water buffer is at least 150 liters. a safety shower (220, 320, 420) through which at least a portion of a water buffer (212, 312, 412) can exit; comprising a conduit (210, 310, 410) containing the water bluffer such that the water buffer is maintained at a temperature of between 15 °C to 40 °C within the conduit as a direct function of a thermal inertia of the ground soil; characterized in that the conduit (210, 310, 410) is disposed under ground soil at a depth of at least 0.3 meters, the system further comprising a dead volume riser coupled to the conduit and configured to divert water that has a temperature of less than 15 °C or greater than 40 °C wherein the water buffer is at least 150 liters.
A method for processing material that contains wood-based material, in which method material is guided to a conveyor (3, 7) and by the conveyor to an apparatus for mechanical processing or to a further processing plant, wherein the method comprises measuring - the moisture content, - the size of pieces of non-combustible material, and - the quantity of non-combustible material in the material flow in connection with said conveyor (3, 7), and - conveying, on the basis of said measurements, material to the further processing plant or to material to be conveyed to the apparatus for mechanical processing, or elsewhere than the further processing plant or the apparatus for mechanical processing, wherein the conveyor comprises at least a first conveyor and the method further comprises - conveying material that contains wood-based material to said apparatus for mechanical processing, by means of the first conveyor, - measuring, upstream of said apparatus, the size of pieces of at least non-combustible material with a measuring device, - determining, on said measurement on the size of pieces, whether said measured material is to be led away from the first conveyor or whether it is to be led by the first conveyor to the apparatus for mechanical processing, to be crushed. - the moisture content, - the size of pieces of non-combustible material, and - the quantity of non-combustible material in the material flow in connection with said conveyor (3, 7), and - conveying, on the basis of said measurements, material to the further processing plant or to material to be conveyed to the apparatus for mechanical processing, or elsewhere than the further processing plant or the apparatus for mechanical processing, wherein the conveyor comprises at least a first conveyor and the method further comprises - conveying material that contains wood-based material to said apparatus for mechanical processing, by means of the first conveyor, - measuring, upstream of said apparatus, the size of pieces of at least non-combustible material with a measuring device, - determining, on said measurement on the size of pieces, whether said measured material is to be led away from the first conveyor or whether it is to be led by the first conveyor to the apparatus for mechanical processing, to be crushed.
A battery module comprising: a battery cell assembly including a plurality of battery cells; a sensing assembly which covers front and rear of the battery cell assembly; a module case which receives the battery cell assembly having the mounted sensing assembly; and a thermal conductive adhesive (400, 500) interposed between an upper inner surface of the module case and an upper side of the battery cell assembly, wherein the sensing assembly includes: a first busbar frame assembly positioned in front of the battery cell assembly; a second busbar frame assembly positioned at the rear of the battery cell assembly, facing the first busbar frame assembly; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly, and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive (400, 500) is disposed on two sides of the sensing wire. a battery cell assembly including a plurality of battery cells; a sensing assembly which covers front and rear of the battery cell assembly; a module case which receives the battery cell assembly having the mounted sensing assembly; and a thermal conductive adhesive (400, 500) interposed between an upper inner surface of the module case and an upper side of the battery cell assembly, wherein the sensing assembly includes: a first busbar frame assembly positioned in front of the battery cell assembly; a second busbar frame assembly positioned at the rear of the battery cell assembly, facing the first busbar frame assembly; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly, and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive (400, 500) is disposed on two sides of the sensing wire. a first busbar frame assembly positioned in front of the battery cell assembly; a second busbar frame assembly positioned at the rear of the battery cell assembly, facing the first busbar frame assembly; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly, and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive (400, 500) is disposed on two sides of the sensing wire.
Method for adjusting a stroke volume of a hydrostatic axial piston pump for a hydrostatic traction drive, wherein the axial piston pump has an adjusting unit for adjusting its stroke volume (Vol pmp), wherein the adjusting unit has an actuating cylinder with a first actuating pressure chamber (8 1), in which a first actuating pressure (p st1) can be set via a first pressure reducing valve (18 1), the said actuating pressure depending on a first current intensity (I 1) on a first solenoid (a) of the first pressure reducing valve (18 1), characterized in that the method comprises the following step: the first current intensity (I 1) can be calculated via an electronic control unit as a function of an actual rotational speed (n pmp) and of an operating pressure of the axial piston pump and as a function of an operating element for a driver's request.
Method for monitoring the state of a rotor blade of a wind turbine, comprising: measuring an acceleration of the rotor blade with a first signal, wherein the acceleration is measured at a first radial position at a predetermined distance from the rotor blade root in at least one direction comprising a first directional component orthogonal to the axis of the rotor blade; measuring a strain of the rotor blade with a second signal, wherein the strain is measured at a second radial position disposed in the area of the first radial position to the rotor blade root; determining a first positional change on the basis of the acceleration; determining a first value corresponding to the rotor blade stiffness by means of calculation on the basis of the first positional change and the strain; and determining the rotor blade state from the first value. measuring an acceleration of the rotor blade with a first signal, wherein the acceleration is measured at a first radial position at a predetermined distance from the rotor blade root in at least one direction comprising a first directional component orthogonal to the axis of the rotor blade; measuring a strain of the rotor blade with a second signal, wherein the strain is measured at a second radial position disposed in the area of the first radial position to the rotor blade root; determining a first positional change on the basis of the acceleration; determining a first value corresponding to the rotor blade stiffness by means of calculation on the basis of the first positional change and the strain; and
A receiver to be used under an environment in which a phase slip or a phase fluctuation occurs, for receiving, as a received signal, a transmission signal comprising a signal formed of a plurality of pilot sequences as a part thereof and subjected to modulation after error correction coding, the receiver comprising: a phase compensation unit (21, 22) for performing demodulation for the received signal while maintaining synchronization thereof; and an error correction decoding unit (23 to 25) for performing decoding processing for received data that has been subjected to the demodulation, characterized in that the receiver has a phase slip estimation processing function for estimating the phase slip by the phase compensation unit (21, 22) by using the plurality of pilot sequences, and for estimating a phase difference component by the error correction decoding unit (23 to 25), to thereby correct a phase of the received data wherein the error correction decoding unit (23 to 25) is adapted to estimate the phase difference component based on decision information output after decoding or during the decoding by using hard-decision iterative decoding or soft-decision iterative decoding for an error correction code, and to correct the phase of the received data based on the estimated phase difference component, to thereby execute the phase slip estimation processing function. a phase compensation unit (21, 22) for performing demodulation for the received signal while maintaining synchronization thereof; and an error correction decoding unit (23 to 25) for performing decoding processing for received data that has been subjected to the demodulation, characterized in that the receiver has a phase slip estimation processing function for estimating the phase slip by the phase compensation unit (21, 22) by using the plurality of pilot sequences, and for estimating a phase difference component by the error correction decoding unit (23 to 25), to thereby correct a phase of the received data wherein the error correction decoding unit (23 to 25) is adapted to estimate the phase difference component based on decision information output after decoding or during the decoding by using hard-decision iterative decoding or soft-decision iterative decoding for an error correction code, and to correct the phase of the received data based on the estimated phase difference component, to thereby execute the phase slip estimation processing function.
A method for wireless communication perfomed by a base station, BS, comprising: transmitting a first signal using a first group of one or more tones having a first subcarrier spacing; transmitting a second signal using a second group of one or more tones having a second subcarrier spacing, wherein the first subcarrier spacing is a multiple of the second subcarrier spacing; and transmitting a third signal using a third group of one or more tones in a guard band between the first and second groups of tones, wherein the transmitting the third signal comprises controlling a transmit power of at least one tone of the third group of one or more tones in the guard band, the at least one tone of the third group of tones being on a different frequency grid than the first group of one or more tones or the second group of one or more tones, wherein controlling the transmit power comprises reducing the transmit power of the at least one tone. transmitting a first signal using a first group of one or more tones having a first subcarrier spacing; transmitting a second signal using a second group of one or more tones having a second subcarrier spacing, wherein the first subcarrier spacing is a multiple of the second subcarrier spacing; and transmitting a third signal using a third group of one or more tones in a guard band between the first and second groups of tones, wherein the transmitting the third signal comprises controlling a transmit power of at least one tone of the third group of one or more tones in the guard band, the at least one tone of the third group of tones being on a different frequency grid than the first group of one or more tones or the second group of one or more tones, wherein controlling the transmit power comprises reducing the transmit power of the at least one tone.
An implantable medical device, comprising: a functional device for carrying out a therapeutic or diagnostic function, and a communication device for communicating with a remote monitoring system, wherein the communication device, at a start of initial operation of the implantable medical device, is enabled to establish a communication with said remote monitoring system, wherein the communication device is configured to transmit a transmit signal repeatedly according to a predefined first time scheme to establish a communication with said remote monitoring system, wherein the communication device is configured to transmit said transmit signal repeatedly at a regular first time interval to establish a communication with said remote monitoring system, wherein said transmit signal is configured to trigger said remote monitoring system to establish a communication connection to the implantable medical device, wherein the repeated transmission of the transmit signal requires a current consumption of less than 20 mAs per day, wherein the implantable medical device is configured to initiate at least one communication function on the occasion of establishment of a communication connection with the remote monitoring system, wherein the implantable medical device is configured to activate the communication function only if a specific activation criterion is fulfilled, and wherein the activation criterion is that in a pre-defined previous time span a specified number of successful communication connections have been established in between the implantable medical device and the remote monitoring system. wherein the communication device is configured to transmit a transmit signal repeatedly according to a predefined first time scheme to establish a communication with said remote monitoring system, wherein the communication device is configured to transmit said transmit signal repeatedly at a regular first time interval to establish a communication with said remote monitoring system, wherein said transmit signal is configured to trigger said remote monitoring system to establish a communication connection to the implantable medical device, wherein the repeated transmission of the transmit signal requires a current consumption of less than 20 mAs per day, wherein the implantable medical device is configured to initiate at least one communication function on the occasion of establishment of a communication connection with the remote monitoring system, wherein the implantable medical device is configured to activate the communication function only if a specific activation criterion is fulfilled, and wherein the activation criterion is that in a pre-defined previous time span a specified number of successful communication connections have been established in between the implantable medical device and the remote monitoring system.
A pharmaceutical composition comprising greater than 15% w/w of the compound of Formula: wherein each X + represents a monovalent cation; or wherein X + and X + are taken together to represent a divalent cation X 2+; and/or a hydrate thereof; and at least 5% w/w of one or more effervescent agents; and further comprising one or more pharmaceutically acceptable ingredients. wherein each X + represents a monovalent cation; or wherein X + and X + are taken together to represent a divalent cation X 2+; and/or a hydrate thereof; and at least 5% w/w of one or more effervescent agents; and further comprising one or more pharmaceutically acceptable ingredients.
A vehicle-loading structure of a battery pack in which a battery pack is loaded on a vehicle by connecting the battery pack to a vehicle body frame that is longitudinally disposed along a vehicle body side portion of the vehicle, wherein the battery pack is fastened and connected to the vehicle body frame via a support member that is capable of securing and supporting the battery pack, and wherein the battery pack is disposed between wheel houses for rear wheels of the vehicle, whereby the support member has an interference portion that is configured to interfere with a vehicle structural body when the battery pack moves in a vehicle forward direction caused by the disconnection of the support member from the vehicle body frame due to a shock applied to the vehicle, the interference portion of the support member interferes with the vehicle structural body, so that the battery pack can be supported by the vehicle structural body, and characterized in that the vehicle structural body is a reinforcing structural body reinforcing the wheel houses, and the interference portion of the support member is formed so as to protrude and extend toward the vehicle structural body while protruding in a vehicle width direction, and is configured to be positioned under the battery pack.
A method for determining the presence or absence of an antibiotic in a lactose-free sample that is essentially lactose-free and/or contains less than 0.01% (w/w) of lactose comprising the steps of: (a) contacting said lactose-free sample with an assay medium which comprises a microorganism, a gelling agent and an indicator capable of detecting growth or inhibition of the microorganism to obtain an assembly of the lactose-free sample and the assay medium; (b) incubating the assembly obtained in step (a) for a period of time sufficient to grow the microorganism in case no antibiotic is present in said lactose-free sample; and (c) detecting growth or inhibition of growth of the microorganism with the indicator, characterized in that milk and/or powdered milk is added in step (a). (a) contacting said lactose-free sample with an assay medium which comprises a microorganism, a gelling agent and an indicator capable of detecting growth or inhibition of the microorganism to obtain an assembly of the lactose-free sample and the assay medium; (b) incubating the assembly obtained in step (a) for a period of time sufficient to grow the microorganism in case no antibiotic is present in said lactose-free sample; and (c) detecting growth or inhibition of growth of the microorganism with the indicator,
A polymerization process control method, comprising: performing a polymerization reaction in a polymerization reactor to produce polyethylene having long chain branching greater than 0.01 per 1,000 carbon atoms and less than 0.07 per 1,000 carbon atoms, wherein the polymerization reaction is catalyzed by an electron donor-free Ziegler-Natta catalyst and an alkyl aluminum co-catalyst with ethylene and optionally one or more comonomers to produce the polyethylene; removing a portion of the polyethylene from the polymerization reactor; measuring a melt flow ratio (I 21 /I 2) of the polyethylene removed from the polymerization reactor to determine the amount of LCB using a predetermined relationship between the melt flow ratio (I 21 /I 2) and the LCB; and controlling an amount of LCB of the polyethylene from the polymerization reactor by adjusting a weight concentration of the alkyl aluminum co-catalyst present in the polymerization reactor. performing a polymerization reaction in a polymerization reactor to produce polyethylene having long chain branching greater than 0.01 per 1,000 carbon atoms and less than 0.07 per 1,000 carbon atoms, wherein the polymerization reaction is catalyzed by an electron donor-free Ziegler-Natta catalyst and an alkyl aluminum co-catalyst with ethylene and optionally one or more comonomers to produce the polyethylene; removing a portion of the polyethylene from the polymerization reactor; measuring a melt flow ratio (I 21 /I 2) of the polyethylene removed from the polymerization reactor to determine the amount of LCB using a predetermined relationship between the melt flow ratio (I 21 /I 2) and the LCB; and controlling an amount of LCB of the polyethylene from the polymerization reactor by adjusting a weight concentration of the alkyl aluminum co-catalyst present in the polymerization reactor.
A probe (e), preferably for use in an optical coherence tomography system, wherein the probe (e) has a window at a front facing end, wherein the window has an inner face (i) that has an anti-reflection surface and allows light from a source (a) to pass through it, and an outer face (j) that reflects some of the light from the source (a), the reflected light acting as a reference, and transmits some of the light to and from a sample (k), wherein the outer face (j) is treated so that the reference signal is a scattered signal.
Conveyor belt tightening device for use in a conveying device where said conveying device is of the type having an endless conveyor belt arranged for rotation between two or more pulleys (2, 3), where said pulleys are arranged in a conveying structure, whereby the endless conveyor belt has an upper transport path and a lower return path, where said device comprises means for in use attaching said tightening device to the conveyor structure, in or superposed the belt return path, where said tightening device comprises first and second secondary pulleys (11, 12), characterized in that it comprises an arched member arranged between said secondary pulleys, where the secondary pulleys in use guide the conveyor belt across a belt guide surface provided in the arched member.
A foaming apparatus for the foaming of refrigerator cabinets, said foaming apparatus comprising a frame in turn comprising a supporting structure to which at least a first and a second foaming jig are restrained opposite to each other relative to said supporting structure, said foaming jigs being respectively arranged in a lower position and in an upper position relative to a vertical direction of the apparatus in an operating condition thereof, wherein each foaming jig comprises a bottom wall and peripheral walls (132, 133, 134, 135) configured to enclose the outer shell of a refrigerator cabinet, as well as a plug configured to engage the inner shell of the cabinet, and wherein said peripheral walls (132, 133, 134, 135) and said plug are restrained to the supporting structure, whereas said bottom wall is removably mounted to the peripheral walls (132, 133, 134, 135), characterized in that every jig also comprises one or more injection heads configured to carry out injection of a foaming mixture into a refrigerator cabinet received therein.