mhurhangee/ep-ind-claims huggingface dataset:
A reciprocating compressor comprising: a compressor body in which a piston reciprocates in a cylinder (18, 118) to compress a fluid; a motor which drives the compressor body; a controller which controls the compressor body; and a tank (24, 25) which stores the fluid compressed in the compressor body, wherein the controller controls the compressor body to start the compressor body when a pressure of the fluid in the tank (24, 25) becomes equal to or lower than a start pressure, and stop the compressor body when the pressure of the fluid becomes equal to or higher than a stop pressure, and the controller sets, of at least one of the start pressure and the stop pressure, a pressure applied in a case where a temperature measured by at least one temperature sensor attached to the reciprocating compressor is outside a predetermined temperature range to be lower than a pressure applied in a case where the temperature measured by the at least one temperature sensor is within the predetermined temperature range, wherein the at least one temperature sensor comprises a temperature detecting means for detecting a temperature of the cylinder, characterized in that the start pressure set by the controller is reduced in stages when the temperature of the cylinder detected by the temperature detecting means falls below a prescribed value. a compressor body in which a piston reciprocates in a cylinder (18, 118) to compress a fluid; a motor which drives the compressor body; a controller which controls the compressor body; and a tank (24, 25) which stores the fluid compressed in the compressor body, wherein the controller controls the compressor body to start the compressor body when a pressure of the fluid in the tank (24, 25) becomes equal to or lower than a start pressure, and stop the compressor body when the pressure of the fluid becomes equal to or higher than a stop pressure, and the controller sets, of at least one of the start pressure and the stop pressure, a pressure applied in a case where a temperature measured by at least one temperature sensor attached to the reciprocating compressor is outside a predetermined temperature range to be lower than a pressure applied in a case where the temperature measured by the at least one temperature sensor is within the predetermined temperature range, wherein the at least one temperature sensor comprises a temperature detecting means for detecting a temperature of the cylinder, characterized in that the start pressure set by the controller is reduced in stages when the temperature of the cylinder detected by the temperature detecting means falls below a prescribed value.
An oral composition comprising: a first component comprising at least one E h -raising compound and a pharmaceutically acceptable carrier, and a second component comprising at least one zinc compound capable of providing freely available zinc ions, cetylpyridinium chloride and a pharmaceutically acceptable carrier, wherein the at least one E h -raising compound is selected from the group consisting of hydrogen peroxide, a fermentable sugar, an oxyhalogen compound, and combinations thereof, and wherein the first component comprises 0.01% by weight to 3.0% by weight of the at least one E h -raising compound, and wherein the second component comprises 0.02% by weight to 1.0% by weight of zinc ion and 0.02% by weight to 0.6% by weight of CPC. a first component comprising at least one E h -raising compound and a pharmaceutically acceptable carrier, and a second component comprising at least one zinc compound capable of providing freely available zinc ions, cetylpyridinium chloride and a pharmaceutically acceptable carrier,
A method of controlling a pumping system that includes a pump driven by a motor to deliver a desired flow of fuel to a gas turbine engine, the method comprising the steps of: (a) selecting and measuring a first system operating characteristic, the first operating characteristic being motor current; (b) selecting a system health factor, the system health factor being measured pump leakage initially determined by running the pump while the pumping system is shut off; and (c) determining a system operating function level based upon a relationship between the first system operating characteristic and the system health factor; characterised in that the mehod further comprises the steps of: (d) comparing the system operating function level to a desired system operating function level; and (e) adjusting a second system operating characteristic to achieve the desired system operating function level if the system operating function level is different than the desired system operating function level, wherein the second system operating characteristic is a motor speed that is continually adjusted to maintain a desired level of pump performance. (a) selecting and measuring a first system operating characteristic, the first operating characteristic being motor current; (b) selecting a system health factor, the system health factor being measured pump leakage initially determined by running the pump while the pumping system is shut off; and (c) determining a system operating function level based upon a relationship between the first system operating characteristic and the system health factor; characterised in that the mehod further comprises the steps of: (d) comparing the system operating function level to a desired system operating function level; and (e) adjusting a second system operating characteristic to achieve the desired system operating function level if the system operating function level is different than the desired system operating function level, wherein the second system operating characteristic is a motor speed that is continually adjusted to maintain a desired level of pump performance.
A network device of a lighting system, the network device comprising: • a wireless interface; and • a control unit; characterized by the control unit being configured to: o transmit (step 21), over the wireless interface, at least two different wireless networking standards; o receive (step 22), over the wireless interface, a response for one of the at least two different wireless networking standards; and o activate (step 23) the wireless interface for operation in accordance with the one of the at least two wireless networking standards for which the response was received. • a wireless interface; and • a control unit; characterized by the control unit being configured to: o transmit (step 21), over the wireless interface, at least two different wireless networking standards; o receive (step 22), over the wireless interface, a response for one of the at least two different wireless networking standards; and o activate (step 23) the wireless interface for operation in accordance with the one of the at least two wireless networking standards for which the response was received. o transmit (step 21), over the wireless interface, at least two different wireless networking standards; o receive (step 22), over the wireless interface, a response for one of the at least two different wireless networking standards; and o activate (step 23) the wireless interface for operation in accordance with the one of the at least two wireless networking standards for which the response was received.
An image filtering device for receiving a deblocked decoded image and adding an offset to a pixel value of each pixel of a unit area of the deblocked decoded image which is constituted by a plurality of unit areas, comprising: an offset attribute setting unit configured to, determine an offset bit depth in accordance with a bit depth of the pixel values to further determine an offset value range, and determine a shift value by referring to an offset-type specifying information included in coded data, wherein a maximum bit length representing the offset value range is equal to the offset bit depth-K, and the value of K is equal to 4; an offset decoding unit configured to decode an offset which is restricted to the offset value range; a bit shift unit configured to perform bitwise left shift on the decoded offset by an amount equal to the shift value; and a filtering unit configured to add the left-shifted offset to the pixel value of each pixel of a unit area of the deblocked decoded image. an offset attribute setting unit configured to, determine an offset bit depth in accordance with a bit depth of the pixel values to further determine an offset value range, and determine a shift value by referring to an offset-type specifying information included in coded data, wherein a maximum bit length representing the offset value range is equal to the offset bit depth-K, and the value of K is equal to 4; an offset decoding unit configured to decode an offset which is restricted to the offset value range; a bit shift unit configured to perform bitwise left shift on the decoded offset by an amount equal to the shift value; and a filtering unit configured to add the left-shifted offset to the pixel value of each pixel of a unit area of the deblocked decoded image.
A method of controlling shutdown of a wind turbine having a rotor, the rotor comprising one or more wind turbine blades, the method comprising: dynamically determining a rotor speed reference; obtaining a measure of the rotor speed of the rotor; obtaining a measure of a fore-aft movement of the wind turbine tower; determining an error between the rotor speed reference and the rotor speed of the rotor; and controlling a pitch of one or more of the wind turbine blades based on the determined error and the measured fore-aft movement of the wind turbine tower; characterized in that the method further comprising determining whether the rotor speed of the rotor is increasing, wherein the dynamic determination of the rotor speed reference comprises maintaining a constant rotor speed reference value when the rotor speed of the rotor is determined to be increasing. dynamically determining a rotor speed reference; obtaining a measure of the rotor speed of the rotor; obtaining a measure of a fore-aft movement of the wind turbine tower; determining an error between the rotor speed reference and the rotor speed of the rotor; and controlling a pitch of one or more of the wind turbine blades based on the determined error and the measured fore-aft movement of the wind turbine tower; characterized in that the method further comprising determining whether the rotor speed of the rotor is increasing, wherein the dynamic determination of the rotor speed reference comprises maintaining a constant rotor speed reference value when the rotor speed of the rotor is determined to be increasing.
A pharmaceutical composition comprising about 34.1 wt% of a solid dispersion by weight of the composition, wherein the dispersion comprises 80 wt% of substantially amorphous or amorphous N-[2,4-Bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide (Compound 1) by weight of the dispersion, 19.5 wt% of HPMCAS by weight of the dispersion, and 0.5 wt% SLS by weight of the dispersion; about 30.5 wt% of microcrystalline cellulose by weight of the composition; about 30.4 wt% of lactose by weight of the composition; about 3 wt% of sodium croscarmellose by weight of the composition; about 0.5 wt% of SLS by weight of the composition; about 0.5 wt% of colloidal silicon dioxide by weight of the composition; about 1 wt% of magnesium stearate by weight of the composition; wherein the pharmaceutical composition is made into a tablet; for use in treating or lessening the severity of cystic fibrosis in a patient; wherein said use comprises administering the pharmaceutical composition concurrently with, prior to, or subsequent to one or more other desired therapeutics; and wherein the patient possesses a cystic fibrosis transmembrane receptor (CFTR) with a ΔF508 mutation on both alleles.
Method for arranging a number of micromechanical acceleration sensors on or in a plastics component, in particular a bumper, comprising the following steps: A) fixedly positioning the respective micromechanical acceleration sensor in or on an assigned flexible circuit carrier, wherein the respective micromechanical acceleration sensor is contacted with an integrated conductor track structure of the assigned flexible circuit carrier; B) moulding at least one polymer around the respective micromechanical acceleration sensor and the assigned flexible circuit carrier, wherein the integrated conductor track structure at least regionally remains free of the at least one polymer, C) at least regionally arranging the respective micromechanical acceleration sensor and the assigned flexible circuit carrier on or in the plastics component in such a way that the integrated conductor track structure of the assigned flexible circuit carrier which is free of the at least one polymer is at least partly exposed for electrical contacting of the integrated conductor track structure. A) fixedly positioning the respective micromechanical acceleration sensor in or on an assigned flexible circuit carrier, wherein the respective micromechanical acceleration sensor is contacted with an integrated conductor track structure of the assigned flexible circuit carrier; B) moulding at least one polymer around the respective micromechanical acceleration sensor and the assigned flexible circuit carrier, wherein the integrated conductor track structure at least regionally remains free of the at least one polymer, C) at least regionally arranging the respective micromechanical acceleration sensor and the assigned flexible circuit carrier on or in the plastics component in such a way that the integrated conductor track structure of the assigned flexible circuit carrier which is free of the at least one polymer is at least partly exposed for electrical contacting of the integrated conductor track structure.
A method of delivering fracturing fluid to a wellbore, the method comprising the steps of: providing a dedicated source of electric power at a site containing a wellbore to be fractured; providing one or more electric fracturing modules at the site, the electric fracturing module comprising an electric motor and a coupled fluid pump, the electric motor operatively associated with the dedicated source of electric power; providing an electric blender module, the electric blender module comprising: a fluid source, a fluid additive source, and a blender tub; supplying electric power from the dedicated source to the electric blender module to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; providing the fracturing fluid for pressurized delivery to a wellbore; and operating the fracturing modules using electric power from the dedicated source to pump the fracturing fluid to the wellbore. providing a dedicated source of electric power at a site containing a wellbore to be fractured; providing one or more electric fracturing modules at the site, the electric fracturing module comprising an electric motor and a coupled fluid pump, the electric motor operatively associated with the dedicated source of electric power; providing an electric blender module, the electric blender module comprising: a fluid source, a fluid additive source, and a blender tub; supplying electric power from the dedicated source to the electric blender module to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; providing the fracturing fluid for pressurized delivery to a wellbore; and operating the fracturing modules using electric power from the dedicated source to pump the fracturing fluid to the wellbore.
A method for isolation and cultivation of mesenchymal stem cells, the method comprising: isolating insulin-like growth factor 1 receptor (IGF1R) positive and interleukin 22 receptor alpha 1 (IL22RA1) positive mesenchymal stem cells from a human umbilical cord tissue; and culturing the isolated IGF1R positive and IL22RA1 positive mesenchymal stem cells in media containing platelet-derived growth factor BB (PDGF-BB). isolating insulin-like growth factor 1 receptor (IGF1R) positive and interleukin 22 receptor alpha 1 (IL22RA1) positive mesenchymal stem cells from a human umbilical cord tissue; and culturing the isolated IGF1R positive and IL22RA1 positive mesenchymal stem cells in media containing platelet-derived growth factor BB (PDGF-BB).
A wafer carrier for metal organic chemical vapor deposition, comprising: at least one wafer sub-carrier that is in a groove structure and that is configured to place a substrate for an epitaxial wafer; and wherein a thermal conductivity of a side wall of the wafer sub-carrier is higher than a thermal conductivity of a bottom wall of the wafer sub-carrier; characterized in that the wafer carrier further comprises: a first space in the wafer sub-carrier is filled with a first thermally conductive material, the first space is a space between a flat edge of the substrate for an epitaxial wafer and a side wall of the wafer sub-carrier when the substrate for an epitaxial wafer is placed on the wafer sub-carrier, a thermal conductivity of the first thermally conductive material is not lower than a thermal conductivity of the wafer sub-carrier. at least one wafer sub-carrier that is in a groove structure and that is configured to place a substrate for an epitaxial wafer; and wherein a thermal conductivity of a side wall of the wafer sub-carrier is higher than a thermal conductivity of a bottom wall of the wafer sub-carrier; characterized in that the wafer carrier further comprises: a first space in the wafer sub-carrier is filled with a first thermally conductive material, the first space is a space between a flat edge of the substrate for an epitaxial wafer and a side wall of the wafer sub-carrier when the substrate for an epitaxial wafer is placed on the wafer sub-carrier, a thermal conductivity of the first thermally conductive material is not lower than a thermal conductivity of the wafer sub-carrier.
Method for the partial electrochemical hydrogenation of alkynes of the chemical formula to alkenes, wherein R and R' are selected from inorganic and/or organic radicals, wherein the compound of the chemical formula is hydrogenated on a copper-containing electrode, wherein the copper-containing electrode is configured as a gas diffusion electrode.
A method of operation of a terminal device in a cellular communications network, the method comprising: in response to a request message from the terminal device to a network node receiving information from the network node of the cellular communications network that integrity protection is to be used for user plane data transferred between the network node and the terminal device, and a selected integrity algorithm; and deriving an integrity key and activating integrity protection for user plane data transferred between the terminal device and the network node of the cellular communications network, using the selected integrity algorithm. in response to a request message from the terminal device to a network node receiving information from the network node of the cellular communications network that integrity protection is to be used for user plane data transferred between the network node and the terminal device, and a selected integrity algorithm; and deriving an integrity key and activating integrity protection for user plane data transferred between the terminal device and the network node of the cellular communications network, using the selected integrity algorithm.
Foot support device for a footwell of a vehicle, having several support elements (11, 12, 13) arranged behind one another, wherein the support elements (11, 12, 13) can be transferred from a rest position into an active position when a predetermined driving situation is detected, wherein in the rest position the support elements (11, 12, 13) are arranged respectively parallel to the floor of the footwell and in the active position have respectively a stand-up angle (a) with respect to the floor and support at least 1 foot of an occupant, wherein the support elements (11, 12, 13) are connected to one another so as to be rotationally movable, wherein a drive arrangement lifts at least one front support element into its active position, and wherein a movement of a raised front support element (11, 12) effects a movement of a subsequent support element (12, 13), characterised in that the drive arrangement has a drive and at least one actuator which is connected at least to the front support element and can be driven by the drive.
A sample processing cartridge comprising a plurality of segments (21, 22, 31, 32, 112) arranged in an array at least two rows long and two columns wide, each segment (21, 22, 31, 32, 112) of the array being: defined by at least one wall of the sample cartridge; fluidly isolated from adjacent segments (21, 22, 31, 32, 112), at least in part by at least one breakable seal or by at least one permanent seal; so expandable as to receive a volume of fluid expelled from another segment (21, 22, 31, 32, 112); and so compressible as to contain substantially no fluid when so compressed; wherein at least two adjacent segments (21, 22 or 31, 32) of at least one row of the array are aligned along a longitudinal axis of the row and have substantially the same height along a latitudinal axis of the row; wherein at least two adjacent segments (21, 22 or 31, 32) in at least one row are separated by a permanent seal to form at least two tracks (41, 42) comprising a first track and a second track; wherein at least one segment, or at least two adjacent segments separated by a breakable seal forms a branch segment which is in fluid communication with the at least two tracks (41, 42) for splitting a sample into first track and second track for parallel processing, the branch segment being connected to the first track and the second track through a breakable seal; and wherein at least one segment (21, 22, 31, 32, 112) contains at least one reagent. defined by at least one wall of the sample cartridge; fluidly isolated from adjacent segments (21, 22, 31, 32, 112), at least in part by at least one breakable seal or by at least one permanent seal; so expandable as to receive a volume of fluid expelled from another segment (21, 22, 31, 32, 112); and so compressible as to contain substantially no fluid when so compressed; wherein at least two adjacent segments (21, 22 or 31, 32) of at least one row of the array are aligned along a longitudinal axis of the row and have substantially the same height along a latitudinal axis of the row; wherein at least two adjacent segments (21, 22 or 31, 32) in at least one row are separated by a permanent seal to form at least two tracks (41, 42) comprising a first track and a second track; wherein at least one segment, or at least two adjacent segments separated by a breakable seal forms a branch segment which is in fluid communication with the at least two tracks (41, 42) for splitting a sample into first track and second track for parallel processing, the branch segment being connected to the first track and the second track through a breakable seal; and wherein at least one segment (21, 22, 31, 32, 112) contains at least one reagent.
A radiator for a motor vehicle, with at least one heating device, at least one power device which applies power to at least one heating device, and with one control device which is designed such that a characteristic temperature of the heating device can be derived, wherein at least the electrical operating parameters of operating current and operating voltage of the heating device can be detected and the control device performs the controlled power input of the heating device via pulse-width modulation, such that the power of the heating device is controllable using the control device depending on the characteristic temperature of the heating device and a predetermined limit temperature.