mhurhangee/ep-ind-claims huggingface dataset:
Supported catalyst comprising a calcined, predominantly aluminium, oxide support and an active phase comprising nickel, the nickel content, measured by X-ray fluorescence, being comprised between 5 and 65% by weight of said element with respect to the total mass of the catalyst, said active phase comprising no group VIB metal, comprising a content of alumina greater than or equal to 90% and a content of silica as SiO 2 equivalent of at most 10% with respect to the final oxide, optionally completed by silica and/or phosphorus with a total content of at most 10% by weight of an equivalent of SiO 2 and/or P 2 O 5 with respect to the final oxide, the nickel particles, determined by X-ray diffraction, having a diameter less than or equal to 20 nm, said catalyst having a mesopore median diameter, measured by mercury intrusion porosimetry, between 18 and 25 nm, a mesopore volume measured by mercury porosimetry greater than or equal to 0.45 mUg, a total pore volume measured by mercury porosimetry greater than or equal to 0.45 mL/g, a macropore volume less than 5% of the total pore volume, said mesopore volume, said total pore volume and said macropore volume being measured by mercury intrusion porosimetry according to ASTM standard D4284-83, said catalyst being in the form of grains having an average diameter comprised between 0.5 and 10 mm.
A solution for oral administration having pH 2.5 - 4.5, which comprises 7-[4-(4-benzo[b]thiophen-4-yl-piperazin-1-yl)butoxy]-1H-quinolin-2-one or a salt thereof, and at least one compound selected from the group consisting of lactic acid, phosphoric acid, glycolic acid, malic acid, tartaric acid, citric acid, succinic acid and acetic acid.
An acrylic rubber composition comprising: 100 parts by weight of an ACM polymer, which contains monomers each having a carboxyl group(s) as crosslinking-site monomers, respectively; and 5 to 30 parts by weight of vein graphite or flake graphite. 100 parts by weight of an ACM polymer, which contains monomers each having a carboxyl group(s) as crosslinking-site monomers, respectively; and 5 to 30 parts by weight of vein graphite or flake graphite.
A battery pack comprising: a battery case; an electrode assembly accommodated inside the battery case and comprising an electrode tab, that protrudes outside of the battery case and comprises a first alignment portion comprising an opening; a protective circuit module comprising a tab mounting portion that includes a second alignment portion comprising a projection; and wherein the projection is inserted into the opening such that the first alignment portion is coupled with the second alignment portion. a battery case; an electrode assembly accommodated inside the battery case and comprising an electrode tab, that protrudes outside of the battery case and comprises a first alignment portion comprising an opening; a protective circuit module comprising a tab mounting portion that includes a second alignment portion comprising a projection; and wherein the projection is inserted into the opening such that the first alignment portion is coupled with the second alignment portion.
A surgical system comprising: an instrument; an instrument tracking device configured to track movement of said instrument; a navigation computer configured to create a first virtual boundary associated with an anatomy to be treated by said instrument and being configured to create a second virtual boundary associated with a periphery of a tissue opening for accessing the anatomy to be treated in a patient to be avoided by said instrument; a first boundary tracking device (44, 46) configured to be mounted to the anatomy to be treated by said instrument; said surgical system being configured to map a pose of a coordinate system of the anatomy to be treated to a coordinate system of the first boundary tracking device (44, 46); a second boundary tracking device (110, 300, 400, P) for tracking the periphery of the tissue opening; said navigation computer configured to receive information from said tracking devices (44, 46, 110, 300, 400, P) and to track movement of the first and second virtual boundaries; and a controller configured to receive information associated with said tracking devices (44, 46, 48, 110, 300, 400, P) including positions of said instrument relative to the first and second virtual boundaries, said controller configured to guide movement of said instrument relative to each of the first and second virtual boundaries as the first and second virtual boundaries move relative to one another. an instrument; an instrument tracking device configured to track movement of said instrument; a navigation computer configured to create a first virtual boundary associated with an anatomy to be treated by said instrument and being configured to create a second virtual boundary associated with a periphery of a tissue opening for accessing the anatomy to be treated in a patient to be avoided by said instrument; a first boundary tracking device (44, 46) configured to be mounted to the anatomy to be treated by said instrument; said surgical system being configured to map a pose of a coordinate system of the anatomy to be treated to a coordinate system of the first boundary tracking device (44, 46); a second boundary tracking device (110, 300, 400, P) for tracking the periphery of the tissue opening; said navigation computer configured to receive information from said tracking devices (44, 46, 110, 300, 400, P) and to track movement of the first and second virtual boundaries; and a controller configured to receive information associated with said tracking devices (44, 46, 48, 110, 300, 400, P) including positions of said instrument relative to the first and second virtual boundaries, said controller configured to guide movement of said instrument relative to each of the first and second virtual boundaries as the first and second virtual boundaries move relative to one another.
A prebiotic formulation comprising a prebiotic agent which is inulin; from about 0.01 to about 1.0 percent, by weight of the formulation, of an α-hydroxy acid which is lactic acid; and water; wherein the weight ratio of α-hydroxy acid to prebiotic agent is from about 1:100 to about 1:200 and the pH of the formulation is from about 4.0 to about 6.0. a prebiotic agent which is inulin; from about 0.01 to about 1.0 percent, by weight of the formulation, of an α-hydroxy acid which is lactic acid; and water;
Expanding wall anchor, comprising: i) a threaded longitudinal body formed as a single piece with an expansion cone at one of its ends, this cone being connected to the rest of the body by a cylindrical portion of diameter d1 smaller than the nominal diameter D of the body, and ii) an expanding sleeve of thickness e mounted around the said cylindrical portion of the body and through which the expansion cone is intended to be moved in order to deform the sleeve and anchor the wall anchor in a hole in a support material, characterized in that the ratio d1/D is greater than or equal to 60% and the ratio e/d1 is greater than or equal to 22%. i) a threaded longitudinal body formed as a single piece with an expansion cone at one of its ends, this cone being connected to the rest of the body by a cylindrical portion of diameter d1 smaller than the nominal diameter D of the body, and ii) an expanding sleeve of thickness e mounted around the said cylindrical portion of the body and through which the expansion cone is intended to be moved in order to deform the sleeve and anchor the wall anchor in a hole in a support material,
A battery management system comprising: a plurality of slave controllers (120-1, 120-2, 120-n) configured to be respectively connected with a plurality of battery modules (130-1, 130-2, 130-n) to generate battery sensing information related to the respective battery modules (130-1, 130-2, 130-n); and a master controller connected with an uppermost slave controller from among the slave controllers (120-1, 120-2, 120-n), wherein each of the slave controllers (120-1, 120-2, 120-n) includes a first receiver and a first transmitter configured to communicate with a preceding slave controller or the master controller and a second receiver and a second transmitter configured to communicate with a following slave controller, and characterised in that each of the slave controllers is configured to connect the first receiver with the first transmitter or the second receiver, with the second transmitter depending on types of diagnosis packets inputted through the first receiver, wherein the diagnosis packets include at least one of a first diagnosis packet that indicates one of the slave controllers or a second diagnosis packet that indicates a communication route between two slave controllers. a plurality of slave controllers (120-1, 120-2, 120-n) configured to be respectively connected with a plurality of battery modules (130-1, 130-2, 130-n) to generate battery sensing information related to the respective battery modules (130-1, 130-2, 130-n); and a master controller connected with an uppermost slave controller from among the slave controllers (120-1, 120-2, 120-n), wherein each of the slave controllers (120-1, 120-2, 120-n) includes a first receiver and a first transmitter configured to communicate with a preceding slave controller or the master controller and a second receiver and a second transmitter configured to communicate with a following slave controller, and characterised in that each of the slave controllers is configured to connect the first receiver with the first transmitter or the second receiver, with the second transmitter depending on types of diagnosis packets inputted through the first receiver, wherein the diagnosis packets include at least one of a first diagnosis packet that indicates one of the slave controllers or a second diagnosis packet that indicates a communication route between two slave controllers.
A control system for a rotor assembly comprising: a plurality of sensors (112a, 112b) configured to detect a lead-lag rate of each rotor blade of a plurality of rotor blades rotatable around a shaft; and a flight control computer configured to generate lead-lag compensation signals based on the detected lead rate and lag rate of each rotor blade to control each rotor blade. a plurality of sensors (112a, 112b) configured to detect a lead-lag rate of each rotor blade of a plurality of rotor blades rotatable around a shaft; and a flight control computer configured to generate lead-lag compensation signals based on the detected lead rate and lag rate of each rotor blade to control each rotor blade.
A method for open loop power control in a communication system, the method comprising: receiving pilot signals from a scheduling cell that schedules a mobile station, and neighboring cells located adjacent to the mobile station;comprising: calculating the number of neighboring cells having pathlosses that are less than a threshold; calculating a target Signal-to-Interference Ratio, SIR, of the mobile station using the number of neighboring cells having pathlosses that are less than the threshold; measuring the pathloss of the scheduling cell and calculating uplink transmission power using the measured pathloss of the scheduling cell and the calculated target SIR; and transmitting data with the calculated uplink transmission power, wherein the calculation of the target SIR comprises setting a value acquired by lowering a reference SIR by a product of a parameter for determining the amount of lowering from the reference SIR and the number of neighboring cells having pathlosses that are less than the threshold as the target SIR, wherein the reference SIR is signaled for each mobile station from a network entity. receiving pilot signals from a scheduling cell that schedules a mobile station, and neighboring cells located adjacent to the mobile station;comprising: calculating the number of neighboring cells having pathlosses that are less than a threshold; calculating a target Signal-to-Interference Ratio, SIR, of the mobile station using the number of neighboring cells having pathlosses that are less than the threshold; measuring the pathloss of the scheduling cell and calculating uplink transmission power using the measured pathloss of the scheduling cell and the calculated target SIR; and transmitting data with the calculated uplink transmission power, wherein the calculation of the target SIR comprises setting a value acquired by lowering a reference SIR by a product of a parameter for determining the amount of lowering from the reference SIR and the number of neighboring cells having pathlosses that are less than the threshold as the target SIR, wherein the reference SIR is signaled for each mobile station from a network entity. calculating the number of neighboring cells having pathlosses that are less than a threshold; calculating a target Signal-to-Interference Ratio, SIR, of the mobile station using the number of neighboring cells having pathlosses that are less than the threshold; measuring the pathloss of the scheduling cell and calculating uplink transmission power using the measured pathloss of the scheduling cell and the calculated target SIR; and transmitting data with the calculated uplink transmission power, wherein the calculation of the target SIR comprises setting a value acquired by lowering a reference SIR by a product of a parameter for determining the amount of lowering from the reference SIR and the number of neighboring cells having pathlosses that are less than the threshold as the target SIR, wherein the reference SIR is signaled for each mobile station from a network entity.
Method for treating a fibrous material suspension flow that is at least partially formed from waste paper, at least comprising a dissolution and at least one following first fractionation stage for forming at least one long-fibre fraction and at least one short-fibre fraction, characterized in that at least one short-fibre fraction is guided through at least one flotation stage, at least one long-fibre fraction is guided through a flotation stage, and the rejected product of at least one flotation stage (5, 9) is guided into a separation stage and the accepted product thereof at least partially is guided into at least one of the fractions (3, 4).
A method for leaching chalcopyrite concentrate by means of sulphuric acid-containing aqueous solution and oxygen feed at atmospheric pressure and a temperature between 75°C and the boiling point of the solution, characterised in that leaching is performed as two-stage countercurrent leaching wherein the particle size of the concentrate to be fed into a first leaching stage is in the region of 80% below 60 - 100 μm, the concentrate is leached in the first leaching stage with a leach solution exiting from a second leaching stage with acid concentration in the region of 40-70 g/l for forming a copper sulphate solution having acid concentration regulated to the region of 5-15 g/l; a residue of the first leaching stage is fed into the second leaching stage, where the residue is leached with a raffinate the acid concentration of which is regulated to be 20 - 90 g/l.
A system comprising a processing unit, two sensors (4, 5, 16), and a signal processing unit having at least two separate input ports for a respective one of the sensors (4, 5, 16), having a respective cable having at least one signal conductor for each sensor (4, 5, 16), and having at least one output port for transmitting the sensor signals to a processing unit by means of a cable having at least two signal conductors, characterized in that the signal processing unit comprises a control and evaluation unit, wherein the control and evaluation unit is configured to generate a signal change in a first sensor signal of the first sensor at a flank or a signal change of a second sensor signal of the second sensor, with the signal change of the first sensor signal being maintained for a predefined time period, with the control and evaluation unit being configured to output the first changed sensor signal (M1*) and the second sensor signal (M2*) respectively at the signal conductors of the output port, with a cross-circuit recognition being carried out at the output side in the processing unit or in the signal processing unit, with the input ports of the signal processing unit being respectively connected to an optoelectronic sensor (4, 5, 16) of a muting station, with the optoelectronic sensors (4, 5, 16) each being arranged for the detection of objects at the muting station, and with the processing unit at the output port of the signal processing unit being a muting evaluation unit that is configured to bridge an object determination signal.
Electromagnetically released spring-loaded brake with a rotation axis for mounting on a machine wall, on a motor housing or similar, wherein the spring-loaded brake consists of a coil carrier, at least one armature disk, at least one brake rotor and a flange plate, wherein the coil carrier is equipped with one or more solenoid coils and with one or more compression springs, wherein the parts from the coil carrier to the flange plate are arranged one behind the other in the said sequence along the axis of rotation, wherein the coil carrier has at least three axially extending spacer strips in the region of its outer circumference, starting from the pole face, which are firmly connected to the coil carrier, wherein each of the spacer strips with a guide region (2.1) ensures a rotationally fixed and axially movable mounting of the at least one armature disk via a corresponding armature driver groove (4.1) of the at least one armature disk, wherein the brake rotor is clamped between the at least one armature disk and the flange plate by the force of the at least one compression spring in order to achieve a braking effect, and wherein the at least one armature disk for lifting the braking effect by energizing the at least one solenoid coil against the force of the at least one compression spring is drawn towards the coil carrier, characterized in that each of the spacer strips comprises a centering region (2.2) axially adjoining the guide area (2.1), which is firmly connected to the flange plate via a connection point. wherein the spring-loaded brake consists of a coil carrier, at least one armature disk, at least one brake rotor and a flange plate, wherein the coil carrier is equipped with one or more solenoid coils and with one or more compression springs, wherein the parts from the coil carrier to the flange plate are arranged one behind the other in the said sequence along the axis of rotation, wherein the coil carrier has at least three axially extending spacer strips in the region of its outer circumference, starting from the pole face, which are firmly connected to the coil carrier, wherein each of the spacer strips with a guide region (2.1) ensures a rotationally fixed and axially movable mounting of the at least one armature disk via a corresponding armature driver groove (4.1) of the at least one armature disk, wherein the brake rotor is clamped between the at least one armature disk and the flange plate by the force of the at least one compression spring in order to achieve a braking effect, and wherein the at least one armature disk for lifting the braking effect by energizing the at least one solenoid coil against the force of the at least one compression spring is drawn towards the coil carrier, characterized in that each of the spacer strips comprises a centering region (2.2) axially adjoining the guide area (2.1), which is firmly connected to the flange plate via a connection point.
Laser pulse generator (100, 200) having a. a pulse shape generation device, having i. a pulse shape store for storing data and a digital/analogue converter which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path, iii. a second connection for connecting a clock signal line, iv. a third connection for connecting a pulse line, wherein the first and second connections (5, 8) are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC, in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode, b. a clock unit which is connected to the second connection via the clock signal line, characterised in that c. the clock unit has a reset connection which is connected to the start signal path. a. a pulse shape generation device, having i. a pulse shape store for storing data and a digital/analogue converter which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path, iii. a second connection for connecting a clock signal line, iv. a third connection for connecting a pulse line, wherein the first and second connections (5, 8) are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC, in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode, i. a pulse shape store for storing data and a digital/analogue converter which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path, iii. a second connection for connecting a clock signal line, iv. a third connection for connecting a pulse line, wherein the first and second connections (5, 8) are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC, in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode, b. a clock unit which is connected to the second connection via the clock signal line, characterised in that c. the clock unit has a reset connection which is connected to the start signal path.
A method for determining the location of a vehicle, the method comprising: determining, by a controller, whether first location information of a vehicle is normally received through a GNSS (Global Navigation Satellite System) receiver, determining whether two or more infrastructure devices exist within a reference distance from the vehicle; and determining the location of the vehicle in different manners depending on whether the first location information of the vehicle is normally received and whether two or more infrastructure devices exist within the reference distance from the vehicle, wherein in the determining of the location of the vehicle, when the first location information of the vehicle is normally received and two or more infrastructure devices exist within the reference distance from the vehicle, the controller corrects the first location information of the vehicle by referring to the locations of the infrastructure devices. determining, by a controller, whether first location information of a vehicle is normally received through a GNSS (Global Navigation Satellite System) receiver, determining whether two or more infrastructure devices exist within a reference distance from the vehicle; and determining the location of the vehicle in different manners depending on whether the first location information of the vehicle is normally received and whether two or more infrastructure devices exist within the reference distance from the vehicle, wherein in the determining of the location of the vehicle, when the first location information of the vehicle is normally received and two or more infrastructure devices exist within the reference distance from the vehicle, the controller corrects the first location information of the vehicle by referring to the locations of the infrastructure devices.