mhurhangee/ep-ind-claims huggingface dataset:
A liquid crystal composition including: one or two or more compounds selected from the group consisting of compounds represented by the general formula (i), one or two or more compounds selected from the group consisting of compounds represented by the general formula (ii), at least 10% by mass but not more than 15% by mass of a compound represented by the formula (1.3), at least 30% by mass but not more than 40% by mass of a compound represented by the formula (2.2), one or two compounds selected from the group consisting of a compound represented by the formula (26.1) and a compound represented by the formula (26.2), and one or two or more compounds selected from the group consisting of a compound represented by the formula (45.2), a compound represented by the formula (45.3), and a compound represented by the formula (45.4). (in the general formulae, R 11a and R 21a independently represent an alkyl group having 1 to 8 carbon atoms, and one -CH 2 - group or two or more -CH 2 - groups which are not adjacent to each other in the alkyl group may be independently substituted by -CH=CH-, -C≡C-, - O-, -CO-, -COO- or -OCO, and a hydrogen atom in the alkyl group may be substituted by a fluorine atom or a chlorine atom, m 21 represents 0 or 1, X 21, X 22, X 23 and X 24 independently represent a hydrogen atom, a fluorine atom, or a chlorine atom, and X 25 represents a hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, - CF 3 or -OCF 3.) one or two or more compounds selected from the group consisting of compounds represented by the general formula (i), one or two or more compounds selected from the group consisting of compounds represented by the general formula (ii), at least 10% by mass but not more than 15% by mass of a compound represented by the formula (1.3), at least 30% by mass but not more than 40% by mass of a compound represented by the formula (2.2), one or two compounds selected from the group consisting of a compound represented by the formula (26.1) and a compound represented by the formula (26.2), and one or two or more compounds selected from the group consisting of a compound represented by the formula (45.2), a compound represented by the formula (45.3), and a compound represented by the formula (45.4). (in the general formulae, R 11a and R 21a independently represent an alkyl group having 1 to 8 carbon atoms, and one -CH 2 - group or two or more -CH 2 - groups which are not adjacent to each other in the alkyl group may be independently substituted by -CH=CH-, -C≡C-, - O-, -CO-, -COO- or -OCO, and a hydrogen atom in the alkyl group may be substituted by a fluorine atom or a chlorine atom, m 21 represents 0 or 1, X 21, X 22, X 23 and X 24 independently represent a hydrogen atom, a fluorine atom, or a chlorine atom, and X 25 represents a hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, - CF 3 or -OCF 3.)
Synthetic leather, which comprises a textile carrier and a coating composite which comprises two or more layers, is applied to the textile carrier and is based on plastics compounds, wherein the layer applied directly to the textile carrier as an adhesion layer connects the coating composite firmly to the textile carrier, characterized in that the plastics compound of the adhesion layer contains energy-absorbing additives which are intended to heat the adhesion layer by exposure to electromagnetic radiation and/or electron radiation in such a way that the firm connection to the textile carrier is reversed.
A method of hybridizing nucleic acid sequences in situ comprising: providing a first nucleic acid sequence, and applying a hybridization composition comprising d-valerolactam (2-piperidone) in a concentration of about 1% to 30% (v/v), preferably from 10% to 20% (v/v) to said first nucleic acid sequence for at least a time period sufficient to hybridize the first nucleic acid sequence and a second nucleic acid sequence, wherein said first nucleic acid sequence, hybridization composition and second nucleic acid sequence are heated to facilitate the denaturation of the first and/ or second nucleic acid sequence and the re-annealing of the first nucleic acid sequence to the second nucleic acid sequence. providing a first nucleic acid sequence, and applying a hybridization composition comprising d-valerolactam (2-piperidone) in a concentration of about 1% to 30% (v/v), preferably from 10% to 20% (v/v) to said first nucleic acid sequence for at least a time period sufficient to hybridize the first nucleic acid sequence and a second nucleic acid sequence, wherein said first nucleic acid sequence, hybridization composition and second nucleic acid sequence are heated to facilitate the denaturation of the first and/ or second nucleic acid sequence and the re-annealing of the first nucleic acid sequence to the second nucleic acid sequence. wherein said first nucleic acid sequence, hybridization composition and second nucleic acid sequence are heated to facilitate the denaturation of the first and/ or second nucleic acid sequence and the re-annealing of the first nucleic acid sequence to the second nucleic acid sequence.
A non-contact communication medium, comprising: a memory unit that is configured to store predetermined management information; a power generation unit that includes a resonant circuit and a rectification circuit, and is configured to generate electric power to be supplied to the memory unit, the resonant circuit including an antenna coil and a resonant capacitance unit having a variable capacitance value, the rectification circuit being configured to rectify a resonant output of the resonant circuit; a power monitoring unit that includes a current adjustment element, a reference voltage generation source, and an operational amplifier, the current adjustment element being connected to an input side or an output side of the rectification circuit and being capable of adjusting an output voltage (Vz) of the rectification circuit, the reference voltage generation source being configured to generate a reference voltage (Vref), the operational amplifier being configured to control the current adjustment element such that the output voltage (Vz) of the rectification circuit is equal to the reference voltage (Vref); characterized in that the non-contact communication medium compromises a capacitance control unit including a comparator and being configured to set the resonant capacitance unit to a capacitance value at which the output voltage (Vz) of the rectification circuit is maximized, on a basis of outputs (Xs(n), Xs(n+1)) of the operational amplifier before and after adjustment of the capacitance value being compared with each other in the comparator. a memory unit that is configured to store predetermined management information; a power generation unit that includes a resonant circuit and a rectification circuit, and is configured to generate electric power to be supplied to the memory unit, the resonant circuit including an antenna coil and a resonant capacitance unit having a variable capacitance value, the rectification circuit being configured to rectify a resonant output of the resonant circuit; a power monitoring unit that includes a current adjustment element, a reference voltage generation source, and an operational amplifier, the current adjustment element being connected to an input side or an output side of the rectification circuit and being capable of adjusting an output voltage (Vz) of the rectification circuit, the reference voltage generation source being configured to generate a reference voltage (Vref), the operational amplifier being configured to control the current adjustment element such that the output voltage (Vz) of the rectification circuit is equal to the reference voltage (Vref); characterized in that the non-contact communication medium compromises a capacitance control unit including a comparator and being configured to set the resonant capacitance unit to a capacitance value at which the output voltage (Vz) of the rectification circuit is maximized, on a basis of outputs (Xs(n), Xs(n+1)) of the operational amplifier before and after adjustment of the capacitance value being compared with each other in the comparator.
A composition comprising cetrorelix and a polymer, said polymer comprising a poly-lactic co-glycolic acid (PLGA) in a lactide: glycolide molar ratio between 50:50 and 100:0, wherein cetrorelix is present in an amount of 5% - 90% of the mass of said composition, and said polymer is present in an amount of 10% - 50% of the mass of said composition, and wherein said composition is capable of extending the release of cetrorelix in a subject for a period ranging from 1 month to 6 months.
A method for bonding together a plurality of refractory components (310; 405; 505; 605), each having at least one surface to be bonded, the method comprising: (a) polishing each surface to be bonded to a surface roughness R a of 200 nm or finer; (b) directly contacting the surfaces to be bonded to form an unbonded refractory substrate; (c) firing the unbonded refractory substrate; (d) subjecting the surfaces to be bonded to a compressive force during firing; and wherein the plurality of refractory components (310; 405; 505; 605) are chosen from the group consisting of zircon components and fused cast zirconia components, and wherein the unbonded refractory substrate is fired for a time of at least 12 hours and at a temperature sufficient to sinter the plurality of refractory components (310; 405; 505; 605) and effect bonding at the surfaces, characterised in that the compressive force is from 650 kPa to 3500 kPa. (a) polishing each surface to be bonded to a surface roughness R a of 200 nm or finer; (b) directly contacting the surfaces to be bonded to form an unbonded refractory substrate; (c) firing the unbonded refractory substrate; (d) subjecting the surfaces to be bonded to a compressive force during firing; and
A flexible graphite sheet support structure (100;200;400) comprising: a first support member; a second support member spaced apart from the first support member, wherein one of the first and second support members is adapted for movement relative to the other; and a flexible graphite sheet secured to the first and second support members for transferring heat across a span between the first and second spaced apart support members, the flexible graphite sheet having a free standing curve-shaped flex accommodating section extending between the spaced apart support members, wherein the flex accommodating section is bell curve-shaped having a central curved portion disposed between oppositely disposed outwardly facing concave curved portions. a first support member; a second support member spaced apart from the first support member, wherein one of the first and second support members is adapted for movement relative to the other; and a flexible graphite sheet secured to the first and second support members for transferring heat across a span between the first and second spaced apart support members, the flexible graphite sheet having a free standing curve-shaped flex accommodating section extending between the spaced apart support members, wherein the flex accommodating section is bell curve-shaped having a central curved portion disposed between oppositely disposed outwardly facing concave curved portions.
Industrial robot, having a robotic arm, which has a plurality of axes (A1-A6) and at least one electric drive, which has an electric motor and power electronics controlling the electric motor and is configured to move the relevant axis (A1-A6), wherein the industrial robot is configured to short-circuit the electric motor as part of emergency braking at the same time by means of two independent electric current paths, wherein the electric motor of the at least one electric drive is a three-phase motor and the power electronics of the at least one electric drive has a three-phase inverter driving the motor and an intermediate circuit having an intermediate circuit capacitor which is arranged upstream of the three-phase inverter, wherein the three-phase inverter has a first half bridge and a second half bridge, which each have semiconductor switches (T1-T6) controlled respectively by the industrial robot, and the industrial robot is configured for emergency braking to block the semiconductor switches (T1-T3) of the first half bridge and to close the semiconductor switches (T4-T6) of the second half bridge, so that one of the two electric current paths for the emergency braking runs through the semiconductor switches (T4-T6) of the second half bridge, wherein the industrial robot is configured for emergency braking to block the semiconductor switches (T1-T3) of the first half bridge via a first channel and to close the semiconductor switches (T4-T6) of the second half bridge, and by means of a second channel, different from the first channel, to switch off an external electric voltage for the intermediate circuit, and wherein the intermediate circuit has a first brake resistor and a first switch (T7, 32, 33) and the industrial robot is configured during the emergency braking to close the first switch (T7, 32, 33), in order to switch the brake resistor parallel to the intermediate circuit capacitor, so that one of the two electric current paths for the emergency braking runs through the first brake resistor, and the industrial robot has a second switch (72, 73) and is configured to close the second switch (72, 73) during the emergency braking in order to directly short-circuit the motor.
A power machine (100; 200) having a frame (110; 210), the frame (110; 210) having a front and a rear and two sides, with forward and rearward directions being toward the respective front and rear, and a sideways direction being generally perpendicular to the forward and rearward directions between the two sides, the power machine (100; 200) including a hydraulic spool valve having first and second spools (451, 452), a first operator input device, and a second operator input device wherein, the hydraulic spool valve being positioned along one of the two sides of the frame (110; 210); a first horizontal shaft extending sideways along a first axis, a first link interconnecting the first operator input device and the first horizontal shaft for converting actuation of the first operator input device into rotation of the first horizontal shaft about the first axis, and a first valve actuator for converting rotation of the first horizontal shaft about the first axis into actuation of the first spool; and a second horizontal shaft positioned rearward of the first horizontal shaft and extending sideways along a second axis that is parallel to and non-collinear with the first axis, a second link interconnecting the second operator input device and the second horizontal shaft for converting actuation of the second operator input device into rotation of the second horizontal shaft about the second axis, and a second valve actuator for converting rotation of the second horizontal shaft about the second axis into actuation of the second spool that is positioned forward of and is generally parallel with the first spool. the hydraulic spool valve being positioned along one of the two sides of the frame (110; 210); a first horizontal shaft extending sideways along a first axis, a first link interconnecting the first operator input device and the first horizontal shaft for converting actuation of the first operator input device into rotation of the first horizontal shaft about the first axis, and a first valve actuator for converting rotation of the first horizontal shaft about the first axis into actuation of the first spool; and a second horizontal shaft positioned rearward of the first horizontal shaft and extending sideways along a second axis that is parallel to and non-collinear with the first axis, a second link interconnecting the second operator input device and the second horizontal shaft for converting actuation of the second operator input device into rotation of the second horizontal shaft about the second axis, and a second valve actuator for converting rotation of the second horizontal shaft about the second axis into actuation of the second spool that is positioned forward of and is generally parallel with the first spool.
A method for wireless communication, comprising: identifying a physical random access channel, PRACH, for communication between a base station and a user equipment, UE; characterized by determining a frequency hopping pattern within the PRACH for a random access preamble comprising a plurality of single tone transmissions, the frequency hopping pattern comprising a first plurality of frequency hops associated with a first frequency hopping distance and a second plurality of frequency hops associated with a second frequency hopping distance, wherein the first hopping distance is larger than the second hopping distance. identifying a physical random access channel, PRACH, for communication between a base station and a user equipment, UE; characterized by determining a frequency hopping pattern within the PRACH for a random access preamble comprising a plurality of single tone transmissions, the frequency hopping pattern comprising a first plurality of frequency hops associated with a first frequency hopping distance and a second plurality of frequency hops associated with a second frequency hopping distance, wherein the first hopping distance is larger than the second hopping distance.
A user apparatus configured to transmit a D2D signal at a time interval by using a channel for D2D communication, comprising: resource utilization status obtaining means configured to obtain information indicating resource utilization status in the channel for D2D communication; transmission means configured to transmit, to a base station, information indicating the resource utilization status obtained by the resource utilization status obtaining means; and adjustment means configured to receive, from the base station, a control signal including an indicator value and a priority related to resource utilization status in the channel for D2D communication, and to adjust the time interval of the D2D signal based on the indicator value and the priority included in the control signal. resource utilization status obtaining means configured to obtain information indicating resource utilization status in the channel for D2D communication; transmission means configured to transmit, to a base station, information indicating the resource utilization status obtained by the resource utilization status obtaining means; and adjustment means configured to receive, from the base station, a control signal including an indicator value and a priority related to resource utilization status in the channel for D2D communication, and to adjust the time interval of the D2D signal based on the indicator value and the priority included in the control signal.
A light stabilized film comprising a resin film wherein the resin is polyethylene naphthalene carboxylate, a first light stabilized layer being formed on the resin film and containing an organic ultraviolet ray absorbent of a benzophenone series, and a second light stabilized layer being formed on the first light stabilized layer and containing a metallic oxide having ultraviolet ray absorbability, wherein the metallic oxide is zinc oxide.
Method for sensor-free determination of the rotor position of an electronically commutated multiple-phase EC motor with a rotor, a stator and comprising a commutation device for generating phase currents in the coil system of the stator with the step. a. applying a test signal in the coil system, and characterized in that the amplitude A of the test signal has an envelope curve variation which at first rises during a rising phase (PH an) and then remains constant for a definite number of periods N A during a measurement phase (PH Mess), further characterized by the steps: b. measuring the current value i in the strand during the measurement phase (PH Mess) as a current response to the test signal, c. calculating |i| for determining the envelope curve of the current response and d. determining the rotor position γ 0 by evaluating the curve maxima of the envelope curve of the current response, wherein the effect is used that based on the excitation in step a) the largest current response is generated where the inductance is the lowest, wherein the rotor position γ 0 is established in reference to the lowest inductance. a. applying a test signal in the coil system, and characterized in that the amplitude A of the test signal has an envelope curve variation which at first rises during a rising phase (PH an) and then remains constant for a definite number of periods N A during a measurement phase (PH Mess), further characterized by the steps: b. measuring the current value i in the strand during the measurement phase (PH Mess) as a current response to the test signal, c. calculating |i| for determining the envelope curve of the current response and d. determining the rotor position γ 0 by evaluating the curve maxima of the envelope curve of the current response, wherein the effect is used that based on the excitation in step a) the largest current response is generated where the inductance is the lowest, wherein the rotor position γ 0 is established in reference to the lowest inductance.
A computer-implemented method for treating images to be viewed by patients with visual pathologies, the method comprising the stages of: - capturing video images with one or more digital cameras (31, 32), thereby obtaining pixel signals defined by RGB values of the frames of the video images, - substituting, by means of a processing unit, the RGB values for R'G'B' values according to a table of equivalence previously installed in the processing unit, thereby obtaining pixel signals corresponding to the frames of the modified-colour images, - transmitting the modified-colour images on one or more digital screens (61, 62), wherein the table of equivalence according to which the substitution of the RGB values for R'G'B' values consists of a table that, based on possible RGB values distinguishable in a pixel, returns R'G'B' values corresponding to a colour which spectral energy is reduced with respect to that of the original RGB colour, through a spectral-energy reduction wherein the reduction has greater magnitude for an original colour corresponding to the higher frequencies than an original colour corresponding to the lower frequencies of the visible spectrum. the method being characterized in that the 256 possible G values are grouped into a reduced number of possible values, in the same way as the 256 possible B values, so that the processing unit classifies the RGB values of each pixel into one of the possible combinations of G and B, without taking into account the R value, and said possible combinations of G and B being the input values of the tables of equivalence. - capturing video images with one or more digital cameras (31, 32), thereby obtaining pixel signals defined by RGB values of the frames of the video images, - substituting, by means of a processing unit, the RGB values for R'G'B' values according to a table of equivalence previously installed in the processing unit, thereby obtaining pixel signals corresponding to the frames of the modified-colour images, - transmitting the modified-colour images on one or more digital screens (61, 62),
A positive electrode plate comprising a current collector, a positive active material layer and a binding layer disposed between the current collector and the positive active material layer, wherein the binding layer comprises a polymer material, a conductive material and an inorganic filler, wherein the polymer material comprises a binding layer matrix and the binding layer matrix is an oil-dispersible polymer material having a solubility in NMP at 130 °C for 5 minutes, which is 30% or less of the solubility of PVDF under the same conditions.