mhurhangee/ep-ind-claims huggingface dataset:
Operating panel for an elevator, comprising: a plurality of buttons for selecting one of a plurality of target floors; a plurality of touch-sensitive areas, each of the plurality of touch-sensitive areas being associated to one of the buttons; an output device (7, 8) for outputting information (17, 19); a control unit being connected to each of the buttons and to each of the touch-sensitive areas and to the output device (7, 8); a data storage device comprising at least one data folder stored therein, wherein each data folder comprises information relating to one of the target floors; wherein the control unit is adapted to, upon triggering one of the touch-sensitive areas, reading one of the plurality of data folders comprising information relating to the target floor selectable by the button to which the touch-sensitive area is associated and outputting the information via the output device (7, 8), characterised in that the control unit is furthermore adapted to, upon triggering once more the one of the touch-sensitive areas, reading another data folder comprising another information relating to the target floor selectable by the button to which the touch-sensitive area is associated and outputting the information via the output device (7, 8). a plurality of buttons for selecting one of a plurality of target floors; a plurality of touch-sensitive areas, each of the plurality of touch-sensitive areas being associated to one of the buttons; an output device (7, 8) for outputting information (17, 19); a control unit being connected to each of the buttons and to each of the touch-sensitive areas and to the output device (7, 8); a data storage device comprising at least one data folder stored therein, wherein each data folder comprises information relating to one of the target floors; wherein the control unit is adapted to, upon triggering one of the touch-sensitive areas, reading one of the plurality of data folders comprising information relating to the target floor selectable by the button to which the touch-sensitive area is associated and outputting the information via the output device (7, 8), characterised in that the control unit is furthermore adapted to, upon triggering once more the one of the touch-sensitive areas, reading another data folder comprising another information relating to the target floor selectable by the button to which the touch-sensitive area is associated and outputting the information via the output device (7, 8).
A high solids aqueous mineral and/or filler and/or pigment suspension in acidic pH environment comprising: a) at least one calcium carbonate-containing material comprising calcium carbonate-containing particles, and b) at least one salt of at least one strong acid, wherein the at least one strong acid forming the at least one salt of at least one strong acid is selected from the group consisting of acids having a pK a value of less than or equal to zero at +23 °C, wherein the high solids aqueous suspension has i) a solids content of at least 50 wt.-%, based on the total weight of the high solids aqueous suspension, ii) a Brookfield viscosity at 100 rpm of ≤ 1 000 mPas at a temperature of - 5 °C iii) a pH of < 6 at +23 °C, and iv) a conductivity of between 10 and 100 mS/cm at -5 °C and at +23 °C, and wherein the high solids aqueous suspension comprises the at least one salt of at least one strong acid in an amount of from 1 to 20 wt.-%, based on the total weight of the high solids aqueous suspension. a) at least one calcium carbonate-containing material comprising calcium carbonate-containing particles, and b) at least one salt of at least one strong acid, wherein the at least one strong acid forming the at least one salt of at least one strong acid is selected from the group consisting of acids having a pK a value of less than or equal to zero at +23 °C, i) a solids content of at least 50 wt.-%, based on the total weight of the high solids aqueous suspension, ii) a Brookfield viscosity at 100 rpm of ≤ 1 000 mPas at a temperature of - 5 °C iii) a pH of < 6 at +23 °C, and iv) a conductivity of between 10 and 100 mS/cm at -5 °C and at +23 °C, and wherein the high solids aqueous suspension comprises the at least one salt of at least one strong acid in an amount of from 1 to 20 wt.-%, based on the total weight of the high solids aqueous suspension.
A method of controlling a de-rated power output of a wind turbine generator, the wind turbine generator associated with a predetermined power ramp rate upper limit and operating with a de-rated rotor speed, the method comprising: Ramping, upon receiving a target power level (370, 415), the power output from an initial power level to the target power level during a ramping interval, wherein during a first portion of the ramping interval, the power output is ramped at a first power ramp rate less than the power ramp rate upper limit; and ramping the rotor speed to a predetermined rotor speed value contemporaneously with ramping the power output during the first portion of the ramping interval, wherein the first power ramp rate is determined such that a difference between the power output and the target power level is monotonically decreasing during the entirety of the ramping interval, characterized in that the method further comprising: calculating a result of a predetermined power output limiting function having a current value of the power output as an input, the power output limiting function being selected to ensure a margin of energy is reserved to support the contemporaneous ramping of rotor speed during the first portion of the ramping interval, wherein the first power ramp rate is determined based on the power output limiting function. Ramping, upon receiving a target power level (370, 415), the power output from an initial power level to the target power level during a ramping interval, wherein during a first portion of the ramping interval, the power output is ramped at a first power ramp rate less than the power ramp rate upper limit; and ramping the rotor speed to a predetermined rotor speed value contemporaneously with ramping the power output during the first portion of the ramping interval, wherein the first power ramp rate is determined such that a difference between the power output and the target power level is monotonically decreasing during the entirety of the ramping interval, characterized in that the method further comprising: calculating a result of a predetermined power output limiting function having a current value of the power output as an input, the power output limiting function being selected to ensure a margin of energy is reserved to support the contemporaneous ramping of rotor speed during the first portion of the ramping interval, wherein the first power ramp rate is determined based on the power output limiting function. calculating a result of a predetermined power output limiting function having a current value of the power output as an input, the power output limiting function being selected to ensure a margin of energy is reserved to support the contemporaneous ramping of rotor speed during the first portion of the ramping interval, wherein the first power ramp rate is determined based on the power output limiting function.
A method of ultrasound imaging comprising: transmitting an ultrasound signal into a field of view in which an object is disposed; receiving a first set of echoes from the field of view; generating a B-mode image from the received first set of echoes; applying compression to the object within the field of view; receiving at least one second set of echoes from the field of view, each second set of echoes comprising compression echoes; generating a strain image from a displacement image produced by estimating a motion between sequences of the second sets of echoes; generating a correlation image indicating a degree of similarity between sequences of the second sets of echoes; modifying (1216, 1218) pixel values of the strain image based on one of: the degree of similarity between sequences of the second sets of echoes and the generated B-mode image to generate a modified strain image; displaying the B-mode image; and superimposing the modified strain image over the B-mode image. transmitting an ultrasound signal into a field of view in which an object is disposed; receiving a first set of echoes from the field of view; generating a B-mode image from the received first set of echoes; applying compression to the object within the field of view; receiving at least one second set of echoes from the field of view, each second set of echoes comprising compression echoes; generating a strain image from a displacement image produced by estimating a motion between sequences of the second sets of echoes; generating a correlation image indicating a degree of similarity between sequences of the second sets of echoes; modifying (1216, 1218) pixel values of the strain image based on one of: the degree of similarity between sequences of the second sets of echoes and the generated B-mode image to generate a modified strain image; displaying the B-mode image; and superimposing the modified strain image over the B-mode image.
A food ingredient comprising: - a savoury flavour component; - a hydrolyzed whole grain composition; and - an alpha-amylase or fragment thereof, which alpha-amylase or fragment thereof shows no hydrolytic activity towards dietary fibers when in the active state; wherein the hydrolyzed whole grain composition has a substantially intact beta-glucan structure relative to the starting material and/or a substantially intact arabinoxylan structure relative to the starting material. - a savoury flavour component; - a hydrolyzed whole grain composition; and - an alpha-amylase or fragment thereof, which alpha-amylase or fragment thereof shows no hydrolytic activity towards dietary fibers when in the active state; wherein the hydrolyzed whole grain composition has a substantially intact beta-glucan structure relative to the starting material and/or a substantially intact arabinoxylan structure relative to the starting material.
A cyanoacrylate adhesive composition, comprising: (a) a cyanoacrylate component, and (b) a hydrogenated anhydride. (a) a cyanoacrylate component, and (b) a hydrogenated anhydride.
A process for reduction of oxides of nitrogen contained in a gas stream wherein the process comprises contacting the gas stream with a crystalline molecular sieve having a mole ratio of an oxide selected from silicon oxide, germanium oxide and mixtures thereof to an oxide selected from aluminum oxide, gallium oxide, iron oxide, boron oxide and mixtures thereof greater than 20:1 to 45:1, and having, after calcination, the X-ray diffraction lines shown in the table below: 2-Theta (a) (degrees) d-Spacing (nm) Relative Integrated Intensity (%) (b) 6.56 1.350 VS (c) 7.79 1.135 VS 11.45 0.773 VS 12.92 0.685 VS 14.47 0.612 VS 15.52 0.571 VS 17.25 0.514 VS 18.41 0.482 VS 18.92 0.469 VS 19.86 0.447 S 26.30 0.338 VS 26.62 0.334 S 26.95 0.330 S (a) ±0.20 (b) The X-ray patterns provided are based on a relative intensity scale in which the strongest line in the X-ray pattern is assigned a value of 100: W (weak) is less than 20; M (medium) is between 20 and 40; S (strong) is between 40 and 60; VS (very strong) is greater than 60. (c) Can have greatly varied intensity.
A release unit for automatically releasing a binding for a sliding board, the release unit comprising: (a) a housing; and (b) a controller which comprises: an evaluating device for evaluating a sensor signal (S i) of a sensor (11a-11f) and generating a triggering signal in accordance with the evaluation result; and an actuator which is coupled via a signal connection to the evaluating device and can be triggered by the triggering signal; (c) wherein the sensor (11a-11f) serves to detect the travelling state of the sliding board or the travelling state of a person riding on the sliding board, and the evaluating device is or can be coupled via a signal connection to the sensor (11a-11f) in order to receive the sensor signal (S i), (d) wherein the controller, the evaluating device and the actuator are arranged in the housing, and the housing is embodied as a closed quick-change unit, wherein (e) the housing comprises a connecting device using which the housing can be connected to or detached from the binding or sliding board without the use of a tool, (f) the actuator is supported on the housing and comprises an output member which can be advanced in an acting direction relative to the housing and acts as a ram in the acting direction and which, when the release unit is connected to the sliding board, forms part of a coupling interface for coupling to the binding, (g) and the release unit can be fastened to and detached from the binding or sliding board without opening the housing. (a) a housing; and (b) a controller which comprises: an evaluating device for evaluating a sensor signal (S i) of a sensor (11a-11f) and generating a triggering signal in accordance with the evaluation result; and an actuator which is coupled via a signal connection to the evaluating device and can be triggered by the triggering signal; (c) wherein the sensor (11a-11f) serves to detect the travelling state of the sliding board or the travelling state of a person riding on the sliding board, and the evaluating device is or can be coupled via a signal connection to the sensor (11a-11f) in order to receive the sensor signal (S i), (d) wherein the controller, the evaluating device and the actuator are arranged in the housing, and the housing is embodied as a closed quick-change unit, (e) the housing comprises a connecting device using which the housing can be connected to or detached from the binding or sliding board without the use of a tool, (f) the actuator is supported on the housing and comprises an output member which can be advanced in an acting direction relative to the housing and acts as a ram in the acting direction and which, when the release unit is connected to the sliding board, forms part of a coupling interface for coupling to the binding, (g) and the release unit can be fastened to and detached from the binding or sliding board without opening the housing.
A capacitance measurement circuit for measuring capacitance at an electrode, the circuit comprising: a charging/discharging circuit part which charges the electrode or discharges the electrode; a counter which measures a charging measurement being a time duration taken by the charging/discharging circuit part to charge the electrode between two charging thresholds, and which measures a discharging measurement being a time duration taken by the charging/discharging circuit part to discharge the electrode between two discharging thresholds; a controller configured to control the charging/discharging circuit part and the counter such that a plurality of discharging measurements are obtained and a plurality of charging measurements are obtained; an averaging logic which computes the measured capacitance in relation to an average of the measurements. a charging/discharging circuit part which charges the electrode or discharges the electrode; a counter which measures a charging measurement being a time duration taken by the charging/discharging circuit part to charge the electrode between two charging thresholds, and which measures a discharging measurement being a time duration taken by the charging/discharging circuit part to discharge the electrode between two discharging thresholds; a controller configured to control the charging/discharging circuit part and the counter such that a plurality of discharging measurements are obtained and a plurality of charging measurements are obtained; an averaging logic which computes the measured capacitance in relation to an average of the measurements.
A method of in vitro proliferation of monocytes comprising isolating monocytes from a peripheral blood sample and culturing the isolated monocytes in a monocyte proliferating culture medium thereby proliferating the isolated monocytes, wherein the proliferating culture medium comprises 500 to 2000 IU/ml of GM-CSF, and at least one cytokine selected from the group consisting of (a) IFN-γ in an amount of 1 to 1000 ng/mL, preferably 1 to 500 ng/mL, and most preferably 1 to 50 ng/mL, (b) IL-3 in an amount of 500 to 3000 IU/ml, and (c) Flt-3L in an amount of 1000 to 3000 IU/ml.
An electronic device, wherein the electronic device comprises a printed circuit board PCB ground layer, a metal frame, and an antenna apparatus, and the antenna apparatus comprises a slot, a first feeding point, a second feeding point, and a bridge structure, wherein the slot is formed between the PCB ground layer and a first segment of the metal frame, the first segment of the metal frame comprises a first end and a second end, both ends of the slot are grounded, the slot comprises a first side edge and a second side edge, the first side edge is formed by the PCB ground layer, the second side edge is formed by the first segment of the metal frame, the first segment comprises a first part, a second part, and a third part, the first part is located on one side of the third part, the second part is located on the other side of the third part, and the third part comprises a first gap, a second gap, and a suspended segment located between the first gap and the second gap; the first feeding point is located on the first part, the second feeding point is located on the second part, and the first feeding point and the second feeding point are respectively connected to a positive electrode and a negative electrode of a feed of the antenna apparatus; and the bridge structure comprises a first end and a second end, the first end is connected to the first part, the second end is connected to the second part, a third feeding point is disposed on the bridge structure, and the third feeding point is connected to the positive electrode of the feed; and wherein the bridge structure is further connected to the suspended segment. the slot is formed between the PCB ground layer and a first segment of the metal frame, the first segment of the metal frame comprises a first end and a second end, both ends of the slot are grounded, the slot comprises a first side edge and a second side edge, the first side edge is formed by the PCB ground layer, the second side edge is formed by the first segment of the metal frame, the first segment comprises a first part, a second part, and a third part, the first part is located on one side of the third part, the second part is located on the other side of the third part, and the third part comprises a first gap, a second gap, and a suspended segment located between the first gap and the second gap; the first feeding point is located on the first part, the second feeding point is located on the second part, and the first feeding point and the second feeding point are respectively connected to a positive electrode and a negative electrode of a feed of the antenna apparatus; and the bridge structure comprises a first end and a second end, the first end is connected to the first part, the second end is connected to the second part, a third feeding point is disposed on the bridge structure, and the third feeding point is connected to the positive electrode of the feed; and wherein the bridge structure is further connected to the suspended segment.
An apparatus having an unmatched communication architecture, comprising: an unmatched receiver circuit, including a data path including a first amplifier and a sampling circuit; and a clock distribution network coupled from a second amplifier to the sampling circuit to provide a strobe signal to the sampling circuit, where the second amplifier is not matched to the first amplifier; and a ring oscillator circuit, including a third amplifier matched to the second amplifier; a counter to count oscillations for a period of time; a replica clock distribution network coupled from the third amplifier to the counter, where the replica clock distribution network is a replica of the clock distribution network of the unmatched receiver circuit; and a feedback path from the clock distribution circuit to the third amplifier. an unmatched receiver circuit, including a data path including a first amplifier and a sampling circuit; and a clock distribution network coupled from a second amplifier to the sampling circuit to provide a strobe signal to the sampling circuit, where the second amplifier is not matched to the first amplifier; and a data path including a first amplifier and a sampling circuit; and a clock distribution network coupled from a second amplifier to the sampling circuit to provide a strobe signal to the sampling circuit, where the second amplifier is not matched to the first amplifier; and a ring oscillator circuit, including a third amplifier matched to the second amplifier; a counter to count oscillations for a period of time; a replica clock distribution network coupled from the third amplifier to the counter, where the replica clock distribution network is a replica of the clock distribution network of the unmatched receiver circuit; and a feedback path from the clock distribution circuit to the third amplifier. a third amplifier matched to the second amplifier; a counter to count oscillations for a period of time; a replica clock distribution network coupled from the third amplifier to the counter, where the replica clock distribution network is a replica of the clock distribution network of the unmatched receiver circuit; and a feedback path from the clock distribution circuit to the third amplifier.
A permeation device for reducing boundary layer thickness, the device comprising: a receiving vessel, wherein the receiving vessel comprises an aperture; an insert well partially disposed in the aperture of the receiving vessel; and a stirring member, wherein the stirring member is disposed in the receiving vessel; a magnet positioned with respect to the receiving vessel, the magnet operable for moving the stirring member, wherein the magnet is connected to a motor, the motor adapted to rotate the magnet, wherein the receiving vessel comprises a means for retaining the stirring member in place, the means selected from the group consisting of a constriction disposed about the interior of the receiving vessel, a strainer positioned in the receiving vessel, and a retaining member associated with the receiving vessel; wherein: - either the insert well has a lower section, wherein the lower section of the insert well comprises a porous support; - or the receiving vessel has an upper section, the upper section of the receiving vessel comprising a porous support. a receiving vessel, wherein the receiving vessel comprises an aperture; an insert well partially disposed in the aperture of the receiving vessel; and a stirring member, wherein the stirring member is disposed in the receiving vessel; a magnet positioned with respect to the receiving vessel, the magnet operable for moving the stirring member, wherein the magnet is connected to a motor, the motor adapted to rotate the magnet, - either the insert well has a lower section, wherein the lower section of the insert well comprises a porous support; - or the receiving vessel has an upper section, the upper section of the receiving vessel comprising a porous support.
A nuclear reactor facility for generating power from a nuclear reaction, the reactor facility comprising: a reactor core containing a fissionable uranium chloride fuel salt, the fissionable uranium chloride fuel salt containing UCl 3 and having a melting point of less than 600 °C, wherein the fissionable uranium chloride fuel salt is either 17 % UCl 3, 71 % UCl 4, 12 % NaCl or 17 % UCl 3, 40.5 % UCl 4, 42.5 % NaCl; and a heat exchanger adapted to transfer heat from the fuel salt to a coolant. a reactor core containing a fissionable uranium chloride fuel salt, the fissionable uranium chloride fuel salt containing UCl 3 and having a melting point of less than 600 °C, wherein the fissionable uranium chloride fuel salt is either 17 % UCl 3, 71 % UCl 4, 12 % NaCl or 17 % UCl 3, 40.5 % UCl 4, 42.5 % NaCl; and a heat exchanger adapted to transfer heat from the fuel salt to a coolant.