mhurhangee/ep-ind-claims huggingface dataset:
An anhydrous solubilizate, consisting of xanthohumol with a content of less than or equal to 35 wt.%, preferably less than or equal to 15 wt.%, most preferably 2 wt.% to 12 wt.%; and at least one emulsifier with an HLB value in the range between 13 and 18, in particular selected from the group consisting of polysorbate 80, polysorbate 20, sucrose ester of edible fatty acids (E 473), and phospholipids, in particular lecithin, and mixtures of at least two of said emulsifiers; and up to 35 wt.%, preferably up to 20 wt.%, most preferably up to 15 wt.% of ethanol; and optionally up to 25 wt.%, preferably up to 10 wt.% of glycerol. xanthohumol with a content of less than or equal to 35 wt.%, preferably less than or equal to 15 wt.%, most preferably 2 wt.% to 12 wt.%; and at least one emulsifier with an HLB value in the range between 13 and 18, in particular selected from the group consisting of polysorbate 80, polysorbate 20, sucrose ester of edible fatty acids (E 473), and phospholipids, in particular lecithin, and mixtures of at least two of said emulsifiers; and up to 35 wt.%, preferably up to 20 wt.%, most preferably up to 15 wt.% of ethanol; and optionally up to 25 wt.%, preferably up to 10 wt.% of glycerol.
Electronic subassembly allowing charge transport within adjustable threshold-voltage transistors to be used as the useful information of said transistors, characterized in that it includes: - a semiconductor layer bearing at least one first and one second adjustable threshold-voltage transistor, and - an insulating layer (102, 105) including: • at a first preset depth, a first trapping zone extending at least under the channel of said first transistor and including traps with a density higher than the trap density outside of said first trapping zone, • at a second preset depth, a second trapping zone extending at least under the channel of said second transistor and including traps with a density higher than the trap density outside of said second trapping zone, the second trapping zone differing from the first trapping zone in that: - it is at a second depth different from the first depth, and/or - it has a trap density different from that of the first trapping zone, and/or - it contains implanted atoms that are different from those implanted into the first trapping zone, the semiconductor layer and the first trapping zone being capacitively coupled and the semiconductor layer and the second trapping zone being capacitively coupled. - a semiconductor layer bearing at least one first and one second adjustable threshold-voltage transistor, and - an insulating layer (102, 105) including: • at a first preset depth, a first trapping zone extending at least under the channel of said first transistor and including traps with a density higher than the trap density outside of said first trapping zone, • at a second preset depth, a second trapping zone extending at least under the channel of said second transistor and including traps with a density higher than the trap density outside of said second trapping zone, the second trapping zone differing from the first trapping zone in that: - it is at a second depth different from the first depth, and/or - it has a trap density different from that of the first trapping zone, and/or - it contains implanted atoms that are different from those implanted into the first trapping zone, • at a first preset depth, a first trapping zone extending at least under the channel of said first transistor and including traps with a density higher than the trap density outside of said first trapping zone, • at a second preset depth, a second trapping zone extending at least under the channel of said second transistor and including traps with a density higher than the trap density outside of said second trapping zone, the second trapping zone differing from the first trapping zone in that: - it is at a second depth different from the first depth, and/or - it has a trap density different from that of the first trapping zone, and/or - it contains implanted atoms that are different from those implanted into the first trapping zone, - it is at a second depth different from the first depth, and/or - it has a trap density different from that of the first trapping zone, and/or - it contains implanted atoms that are different from those implanted into the first trapping zone,
A system for securing a first tubular to a second tubular, comprising: a housing having at least one group of at least one window therein; and a gripping assembly disposed in the housing and having at least one member operatively arranged for selectably extending through the at least one window for internally gripping the first tubular; characterised in further comprising a coupling unit having a first clamping mechanism and a second clamping mechanism, the first clamping mechanism operatively arranged for externally clamping the housing, and the second clamping mechanism operatively arranged for externally clamping the second tubular. a housing having at least one group of at least one window therein; and a gripping assembly disposed in the housing and having at least one member operatively arranged for selectably extending through the at least one window for internally gripping the first tubular; characterised in further comprising a coupling unit having a first clamping mechanism and a second clamping mechanism, the first clamping mechanism operatively arranged for externally clamping the housing, and the second clamping mechanism operatively arranged for externally clamping the second tubular.
A method for designing a drilling pattern for rock cavity excavation, in which the drilling pattern determines for a round to be drilled in a face of the rock cavity at least the locations and directional angles of drill holes in the coordinate system of the drilling pattern and the lengths of the drill holes; and which method comprises: creating the drilling pattern with the assistance of a computer using a design program; determining a navigation plane of the drilling pattern, on which the starting points of the drill holes are to be located; determining starting points of the holes to be drilled in the navigation plane; and determining end points of the holes to be drilled, feeding to the design program a face profile representing the shape of the face on the bottom of the round to be drilled; and placing the end points of the drill holes to be drilled in the drilling pattern to locations in accordance with the face profile in the coordinate system of the drilling pattern by the design computer, whereby the drill holes of different lengths in the drilling pattern produce the shape of the given face profile, for the bottom of the round, characterized by determining manually on the design computer the shape of the bottom in the round by dividing the bottom of the round with at least two slicing planes (33a to 33c) defining a face profile separately for each slicing plane by using shape lines wherewith a desired shape is cut for the round in the various slicing planes, carrying out the necessary interpolations for the portions between the slicing planes, and combining the data of the slicing planes in the design program, whereby a three-dimensional face profile is obtained. creating the drilling pattern with the assistance of a computer using a design program; determining a navigation plane of the drilling pattern, on which the starting points of the drill holes are to be located; determining starting points of the holes to be drilled in the navigation plane; and determining end points of the holes to be drilled,
An electric motor control apparatus, comprising: a speed ripple component extraction unit configured to extract a speed ripple component (Δωr) from a difference between an angular frequency command (ωcom) and an angular frequency feedback (ωFB); a phase locked loop circuit configured to generate a phase (θ) of the speed ripple component (Δωr) based on at least the speed ripple component and a given offset value; a torque compensation value generation unit configured to multiply a value (f(θ)) of a periodic function (f) corresponding to the phase (θ) and a given amplitude by each other, to thereby generate a torque compensation value (Tc); a speed control unit configured to calculate a torque command value (Tcom) from the difference between the angular frequency command (ωcom) and the angular frequency feedback (ωFB); and a current control unit configured to control a current to be output to an electric motor based on a compensated torque command obtained by adding the torque compensation value (Tc) to the torque command value (Tcom). a speed ripple component extraction unit configured to extract a speed ripple component (Δωr) from a difference between an angular frequency command (ωcom) and an angular frequency feedback (ωFB); a phase locked loop circuit configured to generate a phase (θ) of the speed ripple component (Δωr) based on at least the speed ripple component and a given offset value; a torque compensation value generation unit configured to multiply a value (f(θ)) of a periodic function (f) corresponding to the phase (θ) and a given amplitude by each other, to thereby generate a torque compensation value (Tc); a speed control unit configured to calculate a torque command value (Tcom) from the difference between the angular frequency command (ωcom) and the angular frequency feedback (ωFB); and a current control unit configured to control a current to be output to an electric motor based on a compensated torque command obtained by adding the torque compensation value (Tc) to the torque command value (Tcom).
Horological limiting device for a watch, comprising an oscillator, and comprising means for limiting the variation of rate of said oscillator in the different positions of said watch in space, said device comprising at least one tourbillon or a karussel, which comprises a carriage which is mounted such that it pivots about a carriage axis relative to a plate carrying a fixed wheel when said limiting device comprises a tourbillon, which carriage carries said oscillator and comprises a carriage wheel arranged so as to be driven by an energy source of the watch or of a movement by way of a gear train, and which carriage carries an escapement mechanism arranged so as to engage with said oscillator, and comprising an escape pinion meshing with said fixed wheel when said limiting device comprises a tourbillon or meshing with a third wheel or a fourth wheel, comprised in said gear train, when said limiting device comprises a karussel, said device comprising a control rod arranged to engage with a control member external to said tourbillon or karussel, characterized in that said rod is arranged to push, substantially radially relative to said carriage axis, a resilient strip which is arranged so as to bear substantially tangentially against said carriage wheel in order to stop said carriage upon passage of said control member from a rest position to an active position, and so as to remain remote from said carriage wheel when said control member is in said rest position thereof.
A photosensitive printing plate comprising: a) a support layer; b) one or more layers of a photocurable material deposited on the support layer; c) a slip film layer positioned on the one or more layers of photocurable material, the slip film layer comprising: (i) one or more polymeric binders; (ii) a layered silicate; and (iii) optionally, a surfactant; wherein the concentration of the layered silicate in the slip film composition is 2% to 8% by weight based on the total weight of the dry constituents; and d) optionally, a removable coversheet. a) a support layer; b) one or more layers of a photocurable material deposited on the support layer; c) a slip film layer positioned on the one or more layers of photocurable material, the slip film layer comprising: (i) one or more polymeric binders; (ii) a layered silicate; and (iii) optionally, a surfactant; wherein the concentration of the layered silicate in the slip film composition is 2% to 8% by weight based on the total weight of the dry constituents; and (i) one or more polymeric binders; (ii) a layered silicate; and (iii) optionally, a surfactant; d) optionally, a removable coversheet.
Electrode (5, 6) for a spark plug, having an electrode main body and a cylindrical wearing part, wherein the wearing part has a longitudinal axis (x-x) which extends from one end side of the wearing part facing the electrode main body to an end side opposite the said end side, and wherein the wearing part has at least one first region and at least one second region, wherein the wearing part is not melted in the at least one first region and the wearing part is melted in the at least one second region, and wherein the cylindrical wearing part has a height and a radius, wherein the height can be measured along the longitudinal axis (x-x) in the first region, and wherein the radius is a circumcircle radius for polygonal end faces (13, 14) or a circle radius for round end faces (13, 14), wherein the height of the wearing part is not less than 0.4 mm, and in that a first transition between the at least one first region and the at least one second region is designated as point A on a lateral surface of the wearing part in a sectional plane of the longitudinal axis, and wherein a second transition between the at least one first region and the at least one second region is designated as point C in the sectional plane, point C lying closest to the longitudinal axis (x-x) in the sectional plane, and the line AC is at an angle α in relation to the longitudinal axis (x-x) and α is greater than or equal to 45°, characterized in that R ≥ 2H.
A control circuit operable to generate a control signal to control the duty cycle of a switched mode power supply, the control circuit comprising: an input reference voltage generator operable to receive a signal indicative of an input voltage (V in) of the switched mode power supply and operable to generate a reference signal (V R) directly proportional to the input voltage (V in); an error signal generator operable to receive a signal indicative of an output voltage (V out) of the switched mode power supply and operable to generate an error signal (V E) by subtracting one of the reference signal (V R) and the output voltage (V out) of the switched mode power supply from the other of the reference signal (V R) and the output voltage (V out) of the switched mode power supply; and a duty cycle control signal generator operable to generate the control signal to control the duty cycle of the switched mode power supply in dependence upon the error signal (V E). an input reference voltage generator operable to receive a signal indicative of an input voltage (V in) of the switched mode power supply and operable to generate a reference signal (V R) directly proportional to the input voltage (V in); an error signal generator operable to receive a signal indicative of an output voltage (V out) of the switched mode power supply and operable to generate an error signal (V E) by subtracting one of the reference signal (V R) and the output voltage (V out) of the switched mode power supply from the other of the reference signal (V R) and the output voltage (V out) of the switched mode power supply; and a duty cycle control signal generator operable to generate the control signal to control the duty cycle of the switched mode power supply in dependence upon the error signal (V E).
Method for operating a drive arrangement for driving a work machine, comprising a motor for generating a torque and a transmission apparatus for transmitting the torque from the motor to the work machine, wherein the transmission apparatus has a fluid coupling, wherein the transmission apparatus has at least one controllable torque transmitter (11, 12) for controlling the torque transmission from the motor to the work machine, wherein the transmission apparatus has the at least one controllable torque transmitter (11, 12) in addition to the fluid coupling, wherein a switchable torque transmitter is arranged between the fluid coupling and the work machine, having the following steps: a) interrupting the torque transmission between the fluid coupling and the work machine; b) starting up the motor, which is separated from the work machine in respect of a torque transmission, to a predetermined speed; c) re-establishing the torque transmission between the fluid coupling and the work machine; and d) driving the work machine by means of a torque transmission from the motor via the transmission apparatus to the drive machine, characterised in that the method comprises the following further step during and/or after step b): driving, using the motor, the fluid coupling without load for cooling the fluid coupling. a) interrupting the torque transmission between the fluid coupling and the work machine; b) starting up the motor, which is separated from the work machine in respect of a torque transmission, to a predetermined speed; c) re-establishing the torque transmission between the fluid coupling and the work machine; and d) driving the work machine by means of a torque transmission from the motor via the transmission apparatus to the drive machine,
A method of forming an ultrasound transducer device, the method comprising: bonding a membrane to a substrate so as to form a sealed cavity therebetween; wherein an exposed surface located within the sealed cavity comprises a getter material, the getter material being electrically isolated from a bottom electrode of the cavity. bonding a membrane to a substrate so as to form a sealed cavity therebetween; wherein an exposed surface located within the sealed cavity comprises a getter material, the getter material being electrically isolated from a bottom electrode of the cavity.
A piping component seal member having excellent chlorine resistance, the seal member comprising an ethylene-propylene rubber, surface-oxidized carbon nanofibers, and carbon black having an average particle diameter of 50 nm to 10 micrometers, wherein the carbon nanofibers have a surface oxygen concentration measured by X-ray photoelectron spectroscopy of 2.6 to 4.6 atm%; wherein the carbon nanofibers have an average diameter of 20 nm to 230 nm.
A biometric scanning user interface for scanning a fingerprint, a palm print or an ear print, the biometric scanning user interface comprising: a layer including a plurality of heat-sensing elements; a mixed-element layer overlaid over the layer of heat-sensing elements, the mixed-element layer including a plurality of heating elements and a plurality of thermochromic polymer elements, whereby heating elements are adjacent to and alternate with thermochromic polymer elements; and a driver adapted to control the plurality of heating elements to control a temperature of the mixed-element layer to, thereby, control a color of the plurality of thermochromic polymer elements; wherein the driver is adapted to control the plurality of heating elements to change the color of the biometric scanning user interface responsive to the detection of a predetermined condition such as a user finger approaching, a user finger contacting, a user finger ending contact or success of authentication. a layer including a plurality of heat-sensing elements; a mixed-element layer overlaid over the layer of heat-sensing elements, the mixed-element layer including a plurality of heating elements and a plurality of thermochromic polymer elements, whereby heating elements are adjacent to and alternate with thermochromic polymer elements; and a driver adapted to control the plurality of heating elements to control a temperature of the mixed-element layer to, thereby, control a color of the plurality of thermochromic polymer elements; wherein the driver is adapted to control the plurality of heating elements to change the color of the biometric scanning user interface responsive to the detection of a predetermined condition such as a user finger approaching, a user finger contacting, a user finger ending contact or success of authentication.
A therapeutic composition comprising peanut protein for use in a method of treating an individual with peanut allergy which comprises: providing the individual with peanut allergy, orally administering a daily dose of peanut protein to the patient, wherein the daily oral dose is increased at intervals of at least 2 weeks in a series of increments starting from an initial dose of 2 mg to a maximum dose of 800 mg or less, the series of dose increments including 2mg, 5mg, 12.5mg, 25mg, 50mg, 100mg and 200mg, administering a daily oral dose of the maximum dose of peanut protein for at least 1 year following step 2. providing the individual with peanut allergy, orally administering a daily dose of peanut protein to the patient, wherein the daily oral dose is increased at intervals of at least 2 weeks in a series of increments starting from an initial dose of 2 mg to a maximum dose of 800 mg or less, the series of dose increments including 2mg, 5mg, 12.5mg, 25mg, 50mg, 100mg and 200mg, administering a daily oral dose of the maximum dose of peanut protein for at least 1 year following step 2.
A method of determining cooling characteristics of a data center comprising: receiving data related to a configuration of equipment in the data center; identifying rack clusters in the configuration of equipment, and for each rack cluster determining whether the rack cluster is a hot aisle cluster or a cold aisle cluster; and determining a hot aisle capture index for at least one equipment rack where the at least one rack cluster is the hot aisle cluster; and determining a cold aisle capture index for at least one equipment rack where the at least one rack cluster is the cold aisle cluster. receiving data related to a configuration of equipment in the data center; identifying rack clusters in the configuration of equipment, and for each rack cluster determining whether the rack cluster is a hot aisle cluster or a cold aisle cluster; and determining a hot aisle capture index for at least one equipment rack where the at least one rack cluster is the hot aisle cluster; and determining a cold aisle capture index for at least one equipment rack where the at least one rack cluster is the cold aisle cluster.
A crystal form G of the compound of formula, wherein the X-ray powder diffraction pattern of the crystal form G of the compound of formula comprises characteristic diffraction peaks at the following angle 2θ: 7.39±0.2°, 19.07±0.2°, and 20.04±0.2°; wherein said X-ray powder diffraction pattern is obtained using copper K-alpha X-rays at a wavelength of 1.54056 Angstroms