mhurhangee/ep-ind-claims huggingface dataset:
Omnidirectional vehicle, comprising a vehicle body (20, 90, 118) and a plurality of omnidirectional wheels (1, 119) arranged rotatably on the vehicle body (20, 90, 118), at least one of the omnidirectional wheels (1, 119) being arranged on the vehicle body (20, 90, 118) by a single wheel suspension (23, 923), wherein the single wheel suspension (23, 923) is designed such that the corresponding omnidirectional wheel (1, 119) can be adjusted in height and the single wheel suspension (23, 923) is designed such that it can drive its omnidirectional wheel (1, 119) into the vehicle body (20, 90, 118) and can drive it at least partly out of the vehicle body (20, 40, 118), characterised in that the omnidirectional vehicle (40, 70, 117) additionally comprises at least one standard wheel which is arranged rotatably by means of a single wheel suspension on the vehicle body (71, 72), wherein the single wheel suspension of the standard wheel is designed essentially like the single wheel suspension (23, 923) of the omnidirectional wheel (1, 119).
A counterfeit and alteration prevention apparatus comprising: a magnetically responsive substance container to contain a magnetically responsive substance (1010, 1110, 1210, 1310) which is adapted to change a reflected light or a transmitted light when a magnetic field applied thereto is changed; a magnetic field generator (1020, 1220, 1320) to generate a magnetic field capable of being applied to the magnetically responsive substance; and a movable part (1030, 1130, 1230, 1330) to perform a function of changing an indication state of the magnetically responsive substance, characterized in that the magnetically responsive substance container is disposed along a circumference of the movable part (1030, 1130, 1230, 1330), and wherein, as the movable part or the magnetic field generator (1020, 1220, 1320) is rotated, a preset color or light transmittance is indicated along a preset pattern. a magnetically responsive substance container to contain a magnetically responsive substance (1010, 1110, 1210, 1310) which is adapted to change a reflected light or a transmitted light when a magnetic field applied thereto is changed; a magnetic field generator (1020, 1220, 1320) to generate a magnetic field capable of being applied to the magnetically responsive substance; and a movable part (1030, 1130, 1230, 1330) to perform a function of changing an indication state of the magnetically responsive substance, characterized in that the magnetically responsive substance container is disposed along a circumference of the movable part (1030, 1130, 1230, 1330), and wherein, as the movable part or the magnetic field generator (1020, 1220, 1320) is rotated, a preset color or light transmittance is indicated along a preset pattern.
A binding molecule comprising an IgM, IgA, IgG/IgM or IgG/IgA antibody with a modified J-chain, wherein the IgG/IgM or IgG/IgA antibody contains an IgM or IgA tailpiece at the IgG heavy chain, wherein the modified J-chain comprises an Absorption Distribution Metabolism Excretion (ADME)-modulating moiety that reduces clearance of the antibody from a subject's circulation, wherein the ADME-modulating moiety is located at the C-terminus or the N-terminus of the modified J chain, and wherein the ADME-modulating moiety comprises an albumin protein, an albumin-binding peptide, an albumin-binding antibody fragment, an FcRn-binding peptide, or an FcRn-binding antibody fragment.
A computer-implemented method for determining locations of overheating of an object in a simulated additive manufacturing build of the object, the method comprising: obtaining a finite element model of the object; simulating build of the object on a layer by layer basis using the finite element model comprising determining a temperature over time at a plurality of locations of a plurality of layers of the object; based on the determined temperature over time at the plurality of locations: determining, for each of the plurality of locations, a maximum temperature based on the corresponding temperature over time; and extracting, for each of the plurality of locations, a thermal gradient; calculating, for each of the plurality of locations, a heat modulus comprising a ratio of a volume of a layer of the location to a bottom area of the layer; and calculating, for each of the plurality of locations, an overheating index based on the corresponding maximum temperature, thermal gradient, and heat modulus. obtaining a finite element model of the object; simulating build of the object on a layer by layer basis using the finite element model comprising determining a temperature over time at a plurality of locations of a plurality of layers of the object; based on the determined temperature over time at the plurality of locations: determining, for each of the plurality of locations, a maximum temperature based on the corresponding temperature over time; and extracting, for each of the plurality of locations, a thermal gradient; determining, for each of the plurality of locations, a maximum temperature based on the corresponding temperature over time; and extracting, for each of the plurality of locations, a thermal gradient; calculating, for each of the plurality of locations, a heat modulus comprising a ratio of a volume of a layer of the location to a bottom area of the layer; and calculating, for each of the plurality of locations, an overheating index based on the corresponding maximum temperature, thermal gradient, and heat modulus.
An endless chain in which a plurality of link plates each having a pair of pin holes are pivotably interconnected to each other through linking pins inserted into said pin holes, a pair of hemispherical projections (25,26) are provided on a front side surface of each of said link plates, each of said projections (25,26) is located on a centerline extending along a link height direction through a center of each of said pin holes, each of said projections (25,26) forms a gap between said link plates disposed adjacent to each other in said link thickness direction, characterized in that each of said projections has a blind hole (25a, 26a) on a backside surface of each of said link plates,
A machine for distributing and compacting paving mix on a paving surface provided with a mix unloading section, an auger for distributing the mix on a paving surface, a screed for compacting the mix on a paving surface, characterized in that: the machine includes a first drive arrangement that includes road wheels for self transport at highway speeds and a second drive arrangement that includes a track assembly for jobsite transportation during a paving operation. the machine includes a first drive arrangement that includes road wheels for self transport at highway speeds and a second drive arrangement that includes a track assembly for jobsite transportation during a paving operation.
A method of secondary serving cell selection for a wireless communication device served by an indoor radio system employing carrier aggregation of component carriers to enable selection of a secondary serving cell, the indoor radio system operating in a first set of at least one frequency band, shared with at least one neighboring base station, and a second set of at least one frequency band, unused by the at least one neighboring base station, wherein said method comprises: - selecting, if it is determined that there is lack of indoor dominance on one or more bands of the first set of frequency band(s), a component carrier of the second set of frequency band(s) to carry the secondary serving cell with higher priority than a component carrier of said one or more bands of the first set of frequency band(s) on which there is lack of indoor dominance; wherein a lack of indoor dominance occurs when the neighboring base station provides a stronger signal than the indoor radio system, and - selecting, if it is determined that there is indoor dominance on one or more bands of the first set of frequency band(s), a component carrier of said one or more bands of the first set of frequency band(s) on which there is indoor dominance, from the indoor radio system, to carry the secondary serving cell with higher priority than a component carrier of the second set of frequency band(s), wherein indoor dominance occurs when the indoor radio system provides a stronger signal than the neighboring base station. - selecting, if it is determined that there is lack of indoor dominance on one or more bands of the first set of frequency band(s), a component carrier of the second set of frequency band(s) to carry the secondary serving cell with higher priority than a component carrier of said one or more bands of the first set of frequency band(s) on which there is lack of indoor dominance; wherein a lack of indoor dominance occurs when the neighboring base station provides a stronger signal than the indoor radio system, and - selecting, if it is determined that there is indoor dominance on one or more bands of the first set of frequency band(s), a component carrier of said one or more bands of the first set of frequency band(s) on which there is indoor dominance, from the indoor radio system, to carry the secondary serving cell with higher priority than a component carrier of the second set of frequency band(s), wherein indoor dominance occurs when the indoor radio system provides a stronger signal than the neighboring base station.
A system comprising a recuperated gas turbine engine with a catalytic combustor, the catalytic combustor comprising: (a) an upstream section comprising an electrical heater and (b) a downstream catalyst section, wherein the upstream section and the downstream catalyst section are disposed adjacent to and in fluid communication with one another; and wherein the upstream section and the downstream catalyst section are integrated in a single unit. (a) an upstream section comprising an electrical heater and (b) a downstream catalyst section, wherein the upstream section and the downstream catalyst section are disposed adjacent to and in fluid communication with one another; and
A poppet valve, comprising: a valve body, said valve body having a central axis, a flow inlet, and a flow outlet; a poppet guide disposed inside the valve body so as to form a first portion of a flow passage from the flow inlet to the flow outlet, the guide including at least one hole at the rear thereof, said flow passage being formed between an inside surface of the valve body and an outside surface of the poppet guide and passing through the at least one rear hole in the poppet guide; a poppet shutter disposed inside the poppet guide so as to form a second portion of the flow passage between an outside surface of the poppet shutter and the inside surface of the valve body; and a biasing member disposed inside an inner chamber of the poppet guide, said biasing member being configured to bias the poppet shutter toward an inside surface of the flow inlet so as to block the flow passage, wherein said poppet guide further includes at least one discharge hole placing the inner chamber of the poppet guide in flow communication with a region of the flow passage in which, in use, low static pressure has developed at the at least one rear hole of the flow passage, the at least one discharge hole being inclined with respect to the central axis of the valve body. a valve body, said valve body having a central axis, a flow inlet, and a flow outlet; a poppet guide disposed inside the valve body so as to form a first portion of a flow passage from the flow inlet to the flow outlet, the guide including at least one hole at the rear thereof, said flow passage being formed between an inside surface of the valve body and an outside surface of the poppet guide and passing through the at least one rear hole in the poppet guide; a poppet shutter disposed inside the poppet guide so as to form a second portion of the flow passage between an outside surface of the poppet shutter and the inside surface of the valve body; and a biasing member disposed inside an inner chamber of the poppet guide, said biasing member being configured to bias the poppet shutter toward an inside surface of the flow inlet so as to block the flow passage, wherein said poppet guide further includes at least one discharge hole placing the inner chamber of the poppet guide in flow communication with a region of the flow passage in which, in use, low static pressure has developed at the at least one rear hole of the flow passage, the at least one discharge hole being inclined with respect to the central axis of the valve body.
A drug-coated balloon catheter having a balloon, comprising: (i) a main membrane, and (ii) an asymmetrical polymer membrane which is applied to an outside of the main membrane and into which at least one pharmaceutical active ingredient is embedded. (i) a main membrane, and (ii) an asymmetrical polymer membrane which is applied to an outside of the main membrane and into which at least one pharmaceutical active ingredient is embedded.
A silicon nitride substrate comprising silicon nitride and magnesium, wherein the silicon nitride substrate has a rectangular shape and the diagonal on the surface of the silicon nitride substrate has a length of 150 mm or more, and when a surface of the silicon nitride substrate is analyzed with an X-ray fluorescence spectrometer under the following Condition I, XB/XA is 0.80 or more and 1.00 or less, (Condition I) an amount of magnesium, in % by mass in terms of oxide, at an intersection A of diagonals on any one surface of the silicon nitride substrate is defined as XA, the amount of magnesium obtained by analyzing the intersection A with the X-ray fluorescence spectrometer, and an arithmetic mean value of amounts of magnesium, in % by mass in terms of oxide, at four points of B1, B2, B3, and B4 which are on the diagonals and positioned 3 mm inward from corners of the silicon nitride substrate to a direction of the intersection A is defined as XB, the arithmetic mean value of the amounts of magnesium obtained by analyzing the four points B1, B2, B3, and B4 with the X-ray fluorescence spectrometer. wherein the silicon nitride substrate has a rectangular shape and the diagonal on the surface of the silicon nitride substrate has a length of 150 mm or more, and when a surface of the silicon nitride substrate is analyzed with an X-ray fluorescence spectrometer under the following Condition I, XB/XA is 0.80 or more and 1.00 or less, (Condition I) an amount of magnesium, in % by mass in terms of oxide, at an intersection A of diagonals on any one surface of the silicon nitride substrate is defined as XA, the amount of magnesium obtained by analyzing the intersection A with the X-ray fluorescence spectrometer, and an arithmetic mean value of amounts of magnesium, in % by mass in terms of oxide, at four points of B1, B2, B3, and B4 which are on the diagonals and positioned 3 mm inward from corners of the silicon nitride substrate to a direction of the intersection A is defined as XB, the arithmetic mean value of the amounts of magnesium obtained by analyzing the four points B1, B2, B3, and B4 with the X-ray fluorescence spectrometer.
A personal care article for topical application to skin or hair, comprising: a) a compliant personal care product comprising two or more personal care compositions, wherein each personal care composition physically contacts at least one of the other personal care compositions; and b) a first water penetrable substrate adjacent to the two or more personal care compositions; wherein the compliant personal care product is greater than 3,500 wt. %, by weight of the total substrate, wherein the total substrate is the combination of all substrates in the personal care article, wherein the article has a consumption rate of 1.5 g/use to 15 g/use as determined according to the Consumption Test as described in the description, wherein a compliant personal care product is deformable by some degree, so that the personal care product can at least partially conform to a surface to which it is applied, and wherein the compliance value of the personal care product is 1.50 kg/mm or less as determined according to the Compliance Test as described in the description, wherein the personal care compositions are selected from the groups consisting of cleansing compositions, moisturizing compositions, pre-shave compositions, post-shave compositions, shampoos, conditioners, and combinations thereof, wherein the substrate is selected from a nonwoven, a woven, a film, a sponge, a batting, spunbond, spunlace, hydroentagled, carded or needle punch materials and composite materials, and wherein the personal care article comprises - a top side and a bottom side, wherein a first personal care composition is located at one of either the top side or the bottom side and a second personal care composition is located at the remaining side, or - a right side and a left side, wherein a first personal care composition is located at one of either the right side or the left side and the second personal care composition is located at the remaining side. a) a compliant personal care product comprising two or more personal care compositions, wherein each personal care composition physically contacts at least one of the other personal care compositions; and b) a first water penetrable substrate adjacent to the two or more personal care compositions; - a top side and a bottom side, wherein a first personal care composition is located at one of either the top side or the bottom side and a second personal care composition is located at the remaining side, or - a right side and a left side, wherein a first personal care composition is located at one of either the right side or the left side and the second personal care composition is located at the remaining side.
A process for preparing a polymorphic form of zofenopril calcium, comprising the steps of: (a) dissolving a salt of zofenopril in a water miscible organic solvent; (b) mixing the solution obtained in step (a) with an aqueous solution of a calcium salt; and (c) isolating the polymorphic form of zofenopril calcium; wherein the polymorphic form is characterised by an XRPD spectrum comprising at least six of the following 2θ peaks: 4.2, 4.8, 9.6, 17.5, 18.0, 19.3, 19.9, 20.6 and 24.4 ± 0.2 degrees 2θ; with the proviso that the salt of zofenopril in step (a) is not an amine salt and wherein steps (a) and (b) are carried out at a temperature of up to 30°C (a) dissolving a salt of zofenopril in a water miscible organic solvent; (b) mixing the solution obtained in step (a) with an aqueous solution of a calcium salt; and (c) isolating the polymorphic form of zofenopril calcium;
A control method for electric vehicle that is configured to control a torque of a motor based on a final torque command value (Tmf*) by calculating the final torque command value (Tmf*) such that a vibration damping control to reduce vibrations of a driving force transmission system of a vehicle is performed on a target torque command value (Tm*) set according to an accelerator position, the control method for electric vehicle comprising: calculating the final torque command value (Tmf*) by subtracting a value obtained by multiplying a drive-shaft torsional angular velocity by a feedback gain from the target torque command value (Tm*); estimating, by use of a vehicle model that models the driving force transmission system, a dead-zone period during which a motor torque output from the motor is not transmitted to a drive-shaft torque of the vehicle; determining whether or not the vehicle is just before stop of the vehicle; setting different values as the feedback gain separately for the dead-zone period and for a period during which the motor torque is transmitted to the drive-shaft torque of the vehicle; and when the vehicle is just before the stop of the vehicle, setting the same value as the values of the feedback gain for the dead-zone period and for the period during which the motor torque is transmitted to the drive-shaft torque of the vehicle. calculating the final torque command value (Tmf*) by subtracting a value obtained by multiplying a drive-shaft torsional angular velocity by a feedback gain from the target torque command value (Tm*); estimating, by use of a vehicle model that models the driving force transmission system, a dead-zone period during which a motor torque output from the motor is not transmitted to a drive-shaft torque of the vehicle; determining whether or not the vehicle is just before stop of the vehicle; setting different values as the feedback gain separately for the dead-zone period and for a period during which the motor torque is transmitted to the drive-shaft torque of the vehicle; and when the vehicle is just before the stop of the vehicle, setting the same value as the values of the feedback gain for the dead-zone period and for the period during which the motor torque is transmitted to the drive-shaft torque of the vehicle.
A chemical recovery boiler having a furnace for combusting waste liquor and a flue gas duct comprising vertical flue gas channels, at least part of which are provided with heat recovery units for recovering heat from flue gases, said heat recovery units having a width of substantially that of the flue gas duct, wherein a first flue gas channel after the furnace is provided with a superheater, characterized in that in addition to the superheater, the first flue gas channel is provided with a second heat recovery unit which is one of the following heat recovery units: an economizer, a boiler bank or a reheater, and the superheater and the second heat recovery unit are positioned one after the other in the horizontal incoming direction of the flue gas so that in the first flue gas channel the flue gas flows in a vertical direction from above downwards and heats the superheater and the second heat recovery unit simultaneously.