mhurhangee/ep-ind-claims huggingface dataset:
A film comprising a polymeric material and an additive, wherein said polymeric material is a fluoropolymer and said additive is selected from titanium nitride and tungsten oxide, wherein: said film is part of a building; said polymeric material includes a structure wherein X is a halogen atom, preferably a fluorine atom; said film has a thickness of at least 10 μm and less than 500 μm; wherein: when said additive is titanium nitride, said film includes at least 50 ppm and less than 500 ppm of titanium nitride; and when said additive is tungsten oxide, said film includes at least 250 ppm and less than 3000 ppm of tungsten oxide; wherein said tungsten oxide is of formula WO x wherein 2.65 <=x<= 2.95. said film is part of a building; said polymeric material includes a structure wherein X is a halogen atom, preferably a fluorine atom; said film has a thickness of at least 10 μm and less than 500 μm; wherein: when said additive is titanium nitride, said film includes at least 50 ppm and less than 500 ppm of titanium nitride; and when said additive is tungsten oxide, said film includes at least 250 ppm and less than 3000 ppm of tungsten oxide; wherein said tungsten oxide is of formula WO x wherein 2.65 <=x<= 2.95. when said additive is titanium nitride, said film includes at least 50 ppm and less than 500 ppm of titanium nitride; and when said additive is tungsten oxide, said film includes at least 250 ppm and less than 3000 ppm of tungsten oxide; wherein said tungsten oxide is of formula WO x wherein 2.65 <=x<= 2.95.
A method for time-division-multiplexing-based dual connectivity, comprising: determining a redundancy rate, in a first base station, corresponding to an amount of data to be mirrored from the first base station to a second base station on a backhaul link connecting the first base station and the second base station; mirroring, in the first base station, the amount of data from the first base station to the second base station based upon the determined redundancy rate; and transmitting by the first base station, a last-data-unit index or a next-data-unit index related to the mirrored amount of data that depends on the redundancy rate to the second base station after the mirroring, for informing the second base station to begin transmission to a user equipment in accordance with the last-data-unit index or the next-data-unit index. determining a redundancy rate, in a first base station, corresponding to an amount of data to be mirrored from the first base station to a second base station on a backhaul link connecting the first base station and the second base station; mirroring, in the first base station, the amount of data from the first base station to the second base station based upon the determined redundancy rate; and transmitting by the first base station, a last-data-unit index or a next-data-unit index related to the mirrored amount of data that depends on the redundancy rate to the second base station after the mirroring, for informing the second base station to begin transmission to a user equipment in accordance with the last-data-unit index or the next-data-unit index.
A coking system, comprising: a plurality of coke ovens; a plurality of uptake ducts in fluid communication with the plurality of coke ovens, each of the plurality of uptake ducts having an uptake flow vector of exhaust gas from one of the plurality of coke ovens; and a common tunnel having a common flow vector of exhaust gas and configured to transfer the exhaust gas to a venting system, the plurality of uptake ducts and common tunnel being fluidly coupled with one another at a plurality of interfaces, at least some of the plurality of interfaces being non-perpendicular, wherein the uptake ducts are disposed at angles with respect to the common tunnel and bias the uptake flow vectors and common flow vector toward a common flow direction, wherein: the plurality of uptake ducts comprises a first uptake duct in fluid communication with a first coke oven of the plurality of coke ovens and having a first uptake flow vector, and wherein the system further comprises a second uptake duct of the plurality of uptake ducts in fluid communication with the first coke oven or a second coke oven of the plurality of coke ovens and having a second uptake flow vector of exhaust gas; and at least a portion of the first uptake duct is non-perpendicular to the common tunnel by a first angle and at least a portion of the second uptake duct is non-perpendicular to the common tunnel by a second angle different from the first angle, whereby minimising a static pressure differential between an upstream portion and a downstream portion of the common tunnel and discouraging a draft loss within the coking system. a plurality of coke ovens; a plurality of uptake ducts in fluid communication with the plurality of coke ovens, each of the plurality of uptake ducts having an uptake flow vector of exhaust gas from one of the plurality of coke ovens; and a common tunnel having a common flow vector of exhaust gas and configured to transfer the exhaust gas to a venting system, the plurality of uptake ducts comprises a first uptake duct in fluid communication with a first coke oven of the plurality of coke ovens and having a first uptake flow vector, and wherein the system further comprises a second uptake duct of the plurality of uptake ducts in fluid communication with the first coke oven or a second coke oven of the plurality of coke ovens and having a second uptake flow vector of exhaust gas; and at least a portion of the first uptake duct is non-perpendicular to the common tunnel by a first angle and at least a portion of the second uptake duct is non-perpendicular to the common tunnel by a second angle different from the first angle,
A computer-readable medium having instructions executable by a processor that, upon execution, cause a computer to: convert processed data, corresponding to non-invasively recorded electrical data obtained from a patient for at least one time interval, to corresponding reconstructed electrical signals on a predetermined cardiac envelope; compute phase data based on the reconstructed electrical signals; and generate an output comprising a map of an integral of phase gradient computed over the cardiac envelope based on the computed phase data. convert processed data, corresponding to non-invasively recorded electrical data obtained from a patient for at least one time interval, to corresponding reconstructed electrical signals on a predetermined cardiac envelope; compute phase data based on the reconstructed electrical signals; and generate an output comprising a map of an integral of phase gradient computed over the cardiac envelope based on the computed phase data.
A method of operating a first base station in a cellular network, the cellular network also including a second base station, wherein the first and second base stations (20, 30) include first and second oscillators providing a first and second periodic timing pulse respectively, the method comprising the steps of: determining a relative timing offset between a first instance of the first periodic timing pulse for transmission of a frame from the first base station and a first instance of the second periodic timing pulse for transmission of a frame from the second base station; determining that the relative timing offset is changeable; and, in response, adjusting the first periodic timing pulse to maintain the relative timing offset by varying a first period between instances of the first periodic timing pulse such that a rate of change of the relative timing offset over time is reduced. determining a relative timing offset between a first instance of the first periodic timing pulse for transmission of a frame from the first base station and a first instance of the second periodic timing pulse for transmission of a frame from the second base station; determining that the relative timing offset is changeable; and, in response, adjusting the first periodic timing pulse to maintain the relative timing offset by varying a first period between instances of the first periodic timing pulse such that a rate of change of the relative timing offset over time is reduced.
A linear soil release polymer with the formula: X-[ q -block- p]-[(A-R 1 -A-R 2) n]-A-R 1 -A-[ p -block- q]-X where the linking moieties A are esters, where the R 1 moieties are 1,4-phenylene moieties, where the R 2 moieties are substituted ethylene moieties having C 1-4 alkyl substituents, where the EO blocks are 100% ethylene oxide (CH 2 CH 2 O), where the PO blocks are 100% propylene oxide (CH 2 CH(CH 3)O), where p is a number from 11 to 60, preferably 15 to 50, more preferably 20 to 40, most preferably 25 to 35, where q is a number from 6 to 120, preferably 18 to 80, most preferably 40 to 70, provided that q is greater than p and preferably q is at least 1.5 times as large as p, where X is a capping moiety selected from C 1-4 alkyl, branched and unbranched, and where n is a number from 2 to 16.
Method for preparing a sodium-ion battery comprising a positive electrode and a negative electrode arranged to either side of an electrolyte, said positive electrode comprising, as the active material, a material made from sodium, said method comprising the following steps: a) a step of depositing a sodium salt on the surface of the positive electrode, before placing same in the battery; b) a step of assembling the positive electrode, the negative electrode and the electrolyte; and c) a step of forming a passivation layer on the surface of the negative electrode with the sodium ions from the decomposition of the sodium salt, by applying a first charge to the abovementioned assembly. a) a step of depositing a sodium salt on the surface of the positive electrode, before placing same in the battery; b) a step of assembling the positive electrode, the negative electrode and the electrolyte; and c) a step of forming a passivation layer on the surface of the negative electrode with the sodium ions from the decomposition of the sodium salt, by applying a first charge to the abovementioned assembly.
A method for controlling an RRC state in a UE-initiated RRC connection resume procedure, comprising: sending, by a terminal device, a first Radio Resource Control message to a network device, wherein the first RRC message is an RRC resume request message; receiving, by the terminal device, a second RRC message sent from the network device, wherein the second RRC message is an RRC release message; entering, by the terminal device, a RRC inactive state and using configuration information corresponding to the RRC inactive state if the second RRC message carries the configuration information corresponding to the RRC inactive state; wherein if the second RRC message does not carry the configuration information corresponding to the RRC inactive state, the terminal device uses locally stored configuration information corresponding to the RRC inactive state after enters the RRC inactive state; wherein the configuration information corresponding to the RRC inactive state comprises at least one of I-RNTI, an RAN notification area, an RAN DRX cycle, a periodic RAN notification area update timer. sending, by a terminal device, a first Radio Resource Control message to a network device, wherein the first RRC message is an RRC resume request message; receiving, by the terminal device, a second RRC message sent from the network device, wherein the second RRC message is an RRC release message; entering, by the terminal device, a RRC inactive state and using configuration information corresponding to the RRC inactive state if the second RRC message carries the configuration information corresponding to the RRC inactive state; wherein if the second RRC message does not carry the configuration information corresponding to the RRC inactive state, the terminal device uses locally stored configuration information corresponding to the RRC inactive state after enters the RRC inactive state; wherein the configuration information corresponding to the RRC inactive state comprises at least one of I-RNTI, an RAN notification area, an RAN DRX cycle, a periodic RAN notification area update timer.
A pressure-fluid-operated percussion device comprising a frame allowing a tool to be arranged therein movably in its longitudinal direction, means for feeding pressure liquid to the percussion device and for returning pressure liquid to a pressure liquid tank, and means for producing a stress pulse in the tool by utilizing pressure of the pressure liquid, wherein the percussion device comprises a working pressure chamber filled with pressure liquid and, between the working pressure chamber and the tool, a transmission piston which is movably arranged in the longitudinal direction of the frame and which is in contact with the tool either directly or indirectly at least during stress pulse generation, and a charging pressure chamber on the side of the transmission piston facing the tool so that the transmission piston is provided with a pressure surface facing the working pressure chamber and on the side of the charging pressure chamber a pressure surface facing the tool, wherein the means for producing a stress pulse comprise a pressure liquid source connected with the working pressure chamber in order to maintain pressure in the working pressure chamber, and means for intermittently feeding, to the charging pressure chamber, pressure liquid whose pressure enables the transmission piston to be pushed towards the working pressure chamber, against the pressure of the pressure liquid in the working pressure chamber and into a predetermined backward position of the transmission piston such that pressure liquid is discharged from the working pressure chamber, characterised in that the means for producing a stress pulse further comprise means for alternately allowing pressure liquid to be discharged rapidly from the charging pressure chamber when the transmission piston is in said predetermined backward position and substantially in contact with the tool, so that a force produced by the pressure of the pressurized pressure liquid in the working pressure chamber and flowing thereto from the pressure liquid source pushes the transmission piston in the direction of the tool, compressing the tool in its longitudinal direction and thus generating a stress pulse in the tool while maintaining the transmission piston in contact with the tool during compression of the tool.
Process for producing an electron emission electrode of an electron source, wherein the electron emission electrode has at least one emission tip, which is set up for releasing electrons into the environment, comprising the steps of: a) providing a main body of a brittly fracturing material, b) mechanical and/or thermal surface working of the main body to form the emission tip, wherein material is removed from the main body, at least around the emission tip, by brittle fracture and the emission tip is created with a rough surface, the surface roughness of which lies in the range R a = 0.3 - 2.5 μm, R z = 1.2 - 12 μm, where R a stands for the average roughness and R z stands for the average peak-to-valley height according to ISO 25178. a) providing a main body of a brittly fracturing material, b) mechanical and/or thermal surface working of the main body to form the emission tip, wherein material is removed from the main body, at least around the emission tip, by brittle fracture and the emission tip is created with a rough surface, the surface roughness of which lies in the range R a = 0.3 - 2.5 μm, R z = 1.2 - 12 μm, where R a stands for the average roughness and R z stands for the average peak-to-valley height according to ISO 25178.
An internal combustion engine control apparatus comprising: a variable compression ratio mechanism configured to vary a mechanical compression ratio by varying a positional relationship between a piston and a cylinder; a fuel cut section configured to perform a fuel cut in a predetermined decelerating state; a failure detecting section configured to detect a failure of the variable compression ratio mechanism in which the variable compression ratio mechanism is substantially in free state; and a failed-state control section configured to perform a first operation, while the fuel cut is being carried out by the fuel cut section under condition that the variable compression ratio mechanism is failed, wherein the first operation is to reduce an in-cylinder negative pressure during suction stroke by setting larger an opening of a throttle valve than while the fuel cut is being performed under condition that the variable compression ratio mechanism is normal. a variable compression ratio mechanism configured to vary a mechanical compression ratio by varying a positional relationship between a piston and a cylinder; a fuel cut section configured to perform a fuel cut in a predetermined decelerating state; a failure detecting section configured to detect a failure of the variable compression ratio mechanism in which the variable compression ratio mechanism is substantially in free state; and a failed-state control section configured to perform a first operation, while the fuel cut is being carried out by the fuel cut section under condition that the variable compression ratio mechanism is failed, wherein the first operation is to reduce an in-cylinder negative pressure during suction stroke by setting larger an opening of a throttle valve than while the fuel cut is being performed under condition that the variable compression ratio mechanism is normal.
A solid-wall screw centrifuge, comprising at least one discharge for discharging clarified fluid from a drum which comprises at least one or several passages in a drum cover, which is or are respectively associated with a weir plate, which respectively form an overflow weir on their radial inner edge, with further at least one deflecting device being arranged on the outside on the drum cover, which deflecting device is arranged in such a way that an exiting fluid flow is deflected in the circumferential direction or subjected to a twist in the circumferential direction, characterized in that the at least one deflecting device is arranged in such a way that by maintaining the overflow weir the escaping fluid flow is deflected in the circumferential direction at the overflow edge of the at least one weir plate, directly in the axial extension of the region of the passage opening which is not covered by the respective weir plate.
A device for hyperthermic treatment of itching, comprising a) at least one treatment area and b) a control device for regulating the temperature of the treatment area, wherein the control device can regulate the treatment area, by heating at least one heating element in a heating phase, to a treatment temperature of between 42°C and 56°C, and the treatment temperature can be maintained within a treatment phase for a period of 2 sec to 12 sec, characterized in that an additional hardware-implemented temperature monitor reversibly limits the maximum temperature of the treatment area to a value of between 54°C and 58°C, preferably about 56°C, and a fuse switches off the device in the event of a short circuit or unregulated continued heating. a) at least one treatment area and b) a control device for regulating the temperature of the treatment area, wherein the control device can regulate the treatment area, by heating at least one heating element in a heating phase, to a treatment temperature of between 42°C and 56°C, and the treatment temperature can be maintained within a treatment phase for a period of 2 sec to 12 sec,
Method for producing a solder deposit in a metal sheet, the method having the following steps: a) a metal sheet has an upper side and an underside, wherein in a first step a depression is introduced into the upper side by deep drawing; characterised by the following steps: b) then a collar that protrudes in relation to the upper side is produced on the depression by shaping the material of the metal sheet; c) then the collar is pressed at least partially in the direction of the depression so that a cross-sectional area of an opening of the depression is reduced, d) the material protruding on the underside due to the deep drawing is completely pressed back so that the underside in the region of the depression is in one plane with neighbouring regions of the underside. a) a metal sheet has an upper side and an underside, wherein in a first step a depression is introduced into the upper side by deep drawing; b) then a collar that protrudes in relation to the upper side is produced on the depression by shaping the material of the metal sheet; c) then the collar is pressed at least partially in the direction of the depression so that a cross-sectional area of an opening of the depression is reduced, d) the material protruding on the underside due to the deep drawing is completely pressed back so that the underside in the region of the depression is in one plane with neighbouring regions of the underside.
A modulator device for modulating a gas ejection section, the device being for placing inside a nozzle of a thruster or rocket engine upstream from the throat of said nozzle, the modulator device having a shutter member for partially shutting the nozzle throat, a control guide for the shutter member, a main piston, and a primer piston, the control guide being connected to the upstream end of the shutter member, the control guide being movable between a retraction position; the primer piston being housed in a hollow lower part of the main piston, said primer piston being movable between a rest position in which it locks the main piston against moving, and a priming position in which it unlocks movement of the main piston, said primer piston moving from the rest position to the priming position when the pressure exerted on the rear face of the primer piston reaches a first predetermined value; and the main piston being movable between a first position in which movement of the control guide of the shutter member is locked in the retraction position, and a second position in which movement of the control guide of the shutter member is unlocked, the main piston moving from the first position to the second position when the primer piston is in the priming position and when the pressure exerted on the main piston reaches a second predetermined value less than the first predetermined value.
A chromatography media comprising porous inorganic particles having a functionalized surface, said porous inorganic particles having a median pore size of at least 30 nm (300 Angstroms (Å)); a pore size distribution relative span of at least 0.8; and said functionalized surface comprises at least one molecule having a molecular weight of greater than 300 g/mol; wherein said porous inorganic particles have one or more ligands bonded to the functionalized surface, and said one or more ligands comprise sulfonic acid, quarternary ammonium, diethyl aminoethyl, carboxyl methyl groups; synthetic dyes; alkyl compounds; proteins; lectins; antibodies; antigens, enzymes or combinations thereof; and wherein "median pore size" is the pore diameter of which 50% of the intraparticle pore volume resides; "pore size distribution" means the relative abundance of each pore size in a representative volume of porous inorganic particles; "span" is measured by subtracting the d 10 pore size, wherein said d 10 pore size is the pore diameter below which 10% of the pore volume resides, from the d 90 pore size, wherein said d 90 pore size is the pore diameter below which 90% by pore volume resides, as measured by mercury porosimetry; and "relative span" is defined as the ratio of (d 90 -d 10)/d 50.