mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing ions comprising: - providing ions from an ion source (201, 301, 401, 501, 601, 701) to a first ion mobility analyzer (202, 302, 402, 502, 602, 702), - separating the ions according to mobility in the first ion mobility analyzer (202, 302, 402, 502, 602, 702), wherein the first ion mobility analyzer (202, 302, 402, 502, 602, 702) is a trapped ion mobility spectrometry (TIMS) analyzer; - selecting precursor ions of at least one limited mobility range; - fragmenting the selected precursor ions into fragment ions; - trapping the fragment ions in a second ion mobility analyzer (205, 305, 405, 505, 605, 705), wherein the second ion mobility analyzer (205, 305, 405, 505, 605, 705) is a trapped ion mobility spectrometry (TIMS) analyzer; - separating the fragment ions according to mobility in the second ion mobility analyzer (205, 305, 405, 505, 605, 705); and - detecting the separated fragment ions. - providing ions from an ion source (201, 301, 401, 501, 601, 701) to a first ion mobility analyzer (202, 302, 402, 502, 602, 702), - separating the ions according to mobility in the first ion mobility analyzer (202, 302, 402, 502, 602, 702), wherein the first ion mobility analyzer (202, 302, 402, 502, 602, 702) is a trapped ion mobility spectrometry (TIMS) analyzer; - selecting precursor ions of at least one limited mobility range; - fragmenting the selected precursor ions into fragment ions; - trapping the fragment ions in a second ion mobility analyzer (205, 305, 405, 505, 605, 705), wherein the second ion mobility analyzer (205, 305, 405, 505, 605, 705) is a trapped ion mobility spectrometry (TIMS) analyzer; - separating the fragment ions according to mobility in the second ion mobility analyzer (205, 305, 405, 505, 605, 705); and - detecting the separated fragment ions.
Housing for a scanning optoelectronic measuring device, in particular laser scanner for a motor vehicle, having a window cap with a window transparent to electromagnetic measurement beams of the measuring device and with an edge wall formed at an angle to the window and forming an encircling contour, wherein the window cap has a window heater with heating loops for heating the transparent window, is pushed onto the outside of an encircling window edge of the housing and is fastened in a portion of the edge wall overlapping the window edge, characterized in that the housing has contact springs for contact-connecting conductor tracks of the heating loops to an electrical power supply of the heating device.
A method for regulating the rotor rotational speed of a rotor of a rotary tablet press, wherein the rotor has a rotary drive for rotating the rotor, a die plate which revolves with the rotor and has a plurality of cavities as well as a plurality of upper and lower punches which likewise revolve with the rotor and are assigned in pairs to a cavity of the die plate in order to compress filling material in the cavity into a pellet, wherein a rotational speed regulator actuates the rotary drive of the rotor based on a comparison of a measured rotor rotational speed with a nominal rotational speed value, characterized in that, on the basis of directly or indirectly determined pressing force values of upper and/or lower punches, a load torque to be expected is determined for the rotary drive when passing through pressing rollers of the rotary tablet press, and the determined load torque to be expected is provided as a pilot control in the form of an additional nominal torque for actuating the rotary drive.
Device for indicating the history of a product comprising the following layers: (a) a covering layer, impermeable to moisture, (b) an indicator layer comprising at least one indicator, (c) an activator layer comprising at least one activator, as well as (d) an optional delaying layer, wherein the covering layer is arranged over the indicator layer, the activator layer and the delaying layer, wherein the indicator layer is arranged between the covering layer and optional delaying layer, and wherein the activator layer may be absent where an indicator is used which is activated by H 2 O, characterised in that at least one of the layers comprises a cellulose derivative selected from hydroxypropyl methylcellulose (HPMC), methylcellulose, hydroxypropyl cellulose, carboxymethylcellulose and mixtures thereof, preferably HPMC. (a) a covering layer, impermeable to moisture, (b) an indicator layer comprising at least one indicator, (c) an activator layer comprising at least one activator, as well as (d) an optional delaying layer, wherein the covering layer is arranged over the indicator layer, the activator layer and the delaying layer, wherein the indicator layer is arranged between the covering layer and optional delaying layer, and wherein the activator layer may be absent where an indicator is used which is activated by H 2 O, characterised in that at least one of the layers comprises a cellulose derivative selected from hydroxypropyl methylcellulose (HPMC), methylcellulose, hydroxypropyl cellulose, carboxymethylcellulose and mixtures thereof, preferably HPMC.
A spindle device including: a spindle, a housing, a rolling bearing configured to rotatably support the spindle to the housing, and a lubricating agent supply device comprising lubricating agent, configured to supply the lubricating agent to the rolling bearing via a supply path provided in the housing, characterised in that the lubricating agent that is to be supplied from the lubricating agent supply device is a wax-based lubricating agent containing a lubricating oil and a wax and capable of reversibly changing between a liquid state when a temperature exceeds a liquefaction point and a semi-solid state when the temperature does not exceed the liquefaction point, the liquefaction point being a predetermined temperature within a temperature range of 25°C to 60°C, and wherein a grease including a base oil component, which has an infiltrative property and affinity with the wax-based lubricating agent, is enclosed in a bearing space of the rolling bearing. a spindle, a housing, a rolling bearing configured to rotatably support the spindle to the housing, and a lubricating agent supply device comprising lubricating agent, configured to supply the lubricating agent to the rolling bearing via a supply path provided in the housing, characterised in that the lubricating agent that is to be supplied from the lubricating agent supply device is a wax-based lubricating agent containing a lubricating oil and a wax and capable of reversibly changing between a liquid state when a temperature exceeds a liquefaction point and a semi-solid state when the temperature does not exceed the liquefaction point, the liquefaction point being a predetermined temperature within a temperature range of 25°C to 60°C, and wherein a grease including a base oil component, which has an infiltrative property and affinity with the wax-based lubricating agent, is enclosed in a bearing space of the rolling bearing.
A method of manufacturing an openly and highly porous thermoset foam having a porosity of at least 70%, and wherein more than 75% of the pores in the foam are connected to a neighboring pore, the method comprising the steps of: i) mixing a thermosetting resin and crystals to form a mixture, wherein the crystals are present in a crystal: thermosetting resin weight ratio between 75:25 and 95:5; ii) applying pressure to the mixture to expel excess thermosetting resin, thereby producing a network of crystals touching each other with the thermosetting resin in the interstices between the crystals of said network; iii) curing the thermosetting resin in the mixture under said pressure to produce a cured material; and iv) contacting the cured material with a solvent for the crystals, thereby leaching the crystals out of the cured material and producing said openly and highly porous thermoset foam, wherein said pressure is between 15 MPa and 65 MPa. i) mixing a thermosetting resin and crystals to form a mixture, wherein the crystals are present in a crystal: thermosetting resin weight ratio between 75:25 and 95:5; ii) applying pressure to the mixture to expel excess thermosetting resin, thereby producing a network of crystals touching each other with the thermosetting resin in the interstices between the crystals of said network; iii) curing the thermosetting resin in the mixture under said pressure to produce a cured material; and iv) contacting the cured material with a solvent for the crystals, thereby leaching the crystals out of the cured material and producing said openly and highly porous thermoset foam,
A diaphragm pump comprising: a diaphragm including a deformation portion having a cup shape; a partition configured to close an opening portion of the deformation portion and form a pump chamber together with the deformation portion; a suction through hole extending through the partition; a suction passage communicating with the pump chamber via the suction through hole; a discharge through hole extending through the partition; a discharge passage communicating with the pump chamber via the discharge through hole; a driving mechanism configured to convert rotation of a motor into a reciprocating motion and alternately deform the deformation portion in a direction of increasing a capacity of the pump chamber and in a direction of decreasing the capacity of the pump chamber; a suction valve attached to the partition and configured to open the suction passage in a stroke of increasing the capacity of the pump chamber and close the suction passage in a stroke without increasing the capacity; and a discharge valve attached to the partition in the discharge passage and configured to open the discharge passage in a stroke of decreasing the capacity of the pump chamber and close the discharge passage in a stroke without decreasing the capacity, wherein the partition includes a seat surface on a side facing the pump chamber, and the suction valve includes a valve body configured to come into contact with or separate from the seat surface, characterized in that the valve body includes a leak structure configured to form a channel between the valve body and the seat surface. a diaphragm including a deformation portion having a cup shape; a partition configured to close an opening portion of the deformation portion and form a pump chamber together with the deformation portion; a suction through hole extending through the partition; a suction passage communicating with the pump chamber via the suction through hole; a discharge through hole extending through the partition; a discharge passage communicating with the pump chamber via the discharge through hole; a driving mechanism configured to convert rotation of a motor into a reciprocating motion and alternately deform the deformation portion in a direction of increasing a capacity of the pump chamber and in a direction of decreasing the capacity of the pump chamber; a suction valve attached to the partition and configured to open the suction passage in a stroke of increasing the capacity of the pump chamber and close the suction passage in a stroke without increasing the capacity; and a discharge valve attached to the partition in the discharge passage and configured to open the discharge passage in a stroke of decreasing the capacity of the pump chamber and close the discharge passage in a stroke without decreasing the capacity, wherein the partition includes a seat surface on a side facing the pump chamber, and the suction valve includes a valve body configured to come into contact with or separate from the seat surface,
A method of detecting endometriosis by measuring the concentration of miRNAs in vitro comprising the steps of: extracting RNA from an endometriotic lesion tissue sample and determining a miRNA expression profile of the endometriotic lesion sample and measuring the concentration of miRNAs namely miR-200a-3p, miR-200b-3p and miR-449a, based on evaluating the expression level of said three miRNAs, discriminating an endometriotic lesion biopsy as true endometriotic lesion from non-diseased tissue wherein the increased expression of the miRNAs compared to a healthy sample is an indication of endometriosis. extracting RNA from an endometriotic lesion tissue sample and determining a miRNA expression profile of the endometriotic lesion sample and measuring the concentration of miRNAs namely miR-200a-3p, miR-200b-3p and miR-449a, based on evaluating the expression level of said three miRNAs, discriminating an endometriotic lesion biopsy as true endometriotic lesion from non-diseased tissue wherein the increased expression of the miRNAs compared to a healthy sample is an indication of endometriosis.
Set of femoral implants (10, 20, 30, 40) for a knee prosthesis, comprising at least two femoral implants (10, 20, 30, 40) having different dimensions from one another, each femoral implant (10; 20; 30; 40) comprising: - an outer face suitable for cooperating with a patellar implant or a patella, - an inner face provided with means for anchoring to a bone of the patient, in particular so as to have cement inserted between the inner face and the bone, - and a distal portion and an anterior portion each delimited on both the outer face and the inner face, it being possible to position the distal portion against a distal bone preparation, and it being possible to position the anterior portion against an anterior bone preparation; the distal portion comprising a distal inner surface delimited by a first edge intended to be flush with an edge of the distal bone preparation, the anterior portion comprising a front inner surface delimited by a second edge intended to be flush with an edge of the anterior bone preparation, characterized in that at least the distal portions of the femoral implants (10, 20, 30, 40) are identical irrespective of the dimensions of the femoral implants (10, 20, 30, 40), and in that the distal portion of each femoral implant (10; 20; 30; 40) has a lateral edge and a medial edge which, projected in a horizontal anatomical plane (Ph), extend along lines (T73, T74) delimiting a distal angle (α1) of between 60 degrees and 80 degrees, preferably between 68 degrees and 72 degrees, in particular equal to 70 degrees, the distal angles (α1) of the femoral implants (10, 20, 30, 40) being identical irrespective of the dimensions of the femoral implants (10, 20, 30, 40). - an outer face suitable for cooperating with a patellar implant or a patella, - an inner face provided with means for anchoring to a bone of the patient, in particular so as to have cement inserted between the inner face and the bone, - and a distal portion and an anterior portion each delimited on both the outer face and the inner face, it being possible to position the distal portion against a distal bone preparation, and it being possible to position the anterior portion against an anterior bone preparation;
A method of processing a substrate comprising a first surface and a second surface, the method comprising: applying an exit material to the second surface of the substrate; and focusing a pulsed laser beam into a quasi-non-diffracting beam directed into the substrate such that the quasi-non-diffracting beam enters the substrate through the first surface, the quasi-non-diffracting beam generating an induced absorption within the substrate, the induced absorption producing a damage track within the substrate, wherein the substrate is transparent to at least one wavelength of the pulsed laser beam, characterized in that a difference between a refractive index of the exit material and a refractive index of the substrate is 0.4 or less, wherein a refractive index refers to the refractive index of a material at the peak wavelength of the laser and under the conditions at which the material, such as the material of substrate and exit material are exposed to the laser. applying an exit material to the second surface of the substrate; and focusing a pulsed laser beam into a quasi-non-diffracting beam directed into the substrate such that the quasi-non-diffracting beam enters the substrate through the first surface, the quasi-non-diffracting beam generating an induced absorption within the substrate, the induced absorption producing a damage track within the substrate, wherein the substrate is transparent to at least one wavelength of the pulsed laser beam, characterized in that a difference between a refractive index of the exit material and a refractive index of the substrate is 0.4 or less, wherein a refractive index refers to the refractive index of a material at the peak wavelength of the laser and under the conditions at which the material, such as the material of substrate and exit material are exposed to the laser.
A rare metal extractant for zirconium, palladium, and platinum, which contains a cyclic phenol sulfide derivative of the formula. (in the formula, R 1 is a hydrogen atom or a C 1 -C 10 hydrocarbon; R 2 is a C 0 -C 10 hydrocarbon; R 3 and R 4 are independently a linear or branched C 1 -C 5 alkyl group; and Z is any one of a sulfide group, a sulfinyl group, and a sulfonyl group.)
Steel cord of the construction 1+4, which is an open steel cord, for use as a reinforcing support in a belt ply of a pneumatic vehicle tyre, with a single cord filament and with ply filaments, all of which touch the core filament on the outside and have the same diameter (D 2) of 0.38 mm to 0.45 mm, characterized in that the core filament has a diameter (D 1) of 0.22 mm to 0.25 mm.
A method for wireless communication by a first device, comprising: receiving via sidelink from a second device a first data packet in one or more receiving slots of a time division duplex, TDD, frame; determining whether the first data packet is received incorrectly; waiting until an end of the one or more receiving slots; transmitting via sidelink to the second device a first negative acknowledgement signal, NACK, in at least one NACK feedback symbol in a slot after the end of the one or more receiving slots in response to determining that the first data packet is received incorrectly, characterized by switching from a receiving mode to a transmitting mode during a first turnaround symbol in the slot in order to transmit the first NACK in the at least one NACK feedback symbol, wherein the first turnaround symbol comes one symbol before the at least one NACK feedback symbol; and switching from the transmitting mode back to the receiving mode during a second turnaround symbol in the slot, wherein the second turnaround symbol comes one symbol after the at least one NACK feedback symbol. receiving via sidelink from a second device a first data packet in one or more receiving slots of a time division duplex, TDD, frame; determining whether the first data packet is received incorrectly; waiting until an end of the one or more receiving slots; transmitting via sidelink to the second device a first negative acknowledgement signal, NACK, in at least one NACK feedback symbol in a slot after the end of the one or more receiving slots in response to determining that the first data packet is received incorrectly, characterized by switching from a receiving mode to a transmitting mode during a first turnaround symbol in the slot in order to transmit the first NACK in the at least one NACK feedback symbol, wherein the first turnaround symbol comes one symbol before the at least one NACK feedback symbol; and switching from the transmitting mode back to the receiving mode during a second turnaround symbol in the slot, wherein the second turnaround symbol comes one symbol after the at least one NACK feedback symbol.
A breathing circuit device comprising: a filter device (50, 50', 120) including: a distal housing (52, 52') comprising an inspiratory chamber wall and an expiratory chamber wall, a distal medial wall extending between the inspiratory chamber wall and the expiratory chamber wall, a distal inner port, and a distal outer port arranged co-axially with said distal inner port; a proximal housing (54, 54', 122) comprising an inspiratory chamber wall and an expiratory chamber wall, a proximal medial wall extending between the inspiratory chamber wall and the expiratory chamber wall, a proximal inner port, and a proximal outer port (82, 132), the proximal housing (54, 54', 122) being sealingly affixed to the distal housing (52, 52'), with the inspiratory chamber wall joined with the inspiratory chamber wall and the distal medial wall joined with the proximal medial wall to form an inspiratory pathway between the distal inner port and the proximal inner port, and the expiratory chamber wall joined with the expiratory chamber wall to form, together with the distal medial wall and the proximal medial wall, an expiratory pathway between the distal outer port and the proximal outer port (82, 132) that is fluidly sealed from the inspiratory pathway, the inspiratory pathway being laterally adjacent the expiratory pathway; and a first filter (100, 102) in the inspiratory pathway or in the expiratory pathway to filter gases flowing through the inspiratory pathway or the expiratory pathway. a distal housing (52, 52') comprising an inspiratory chamber wall and an expiratory chamber wall, a distal medial wall extending between the inspiratory chamber wall and the expiratory chamber wall, a distal inner port, and a distal outer port arranged co-axially with said distal inner port; a proximal housing (54, 54', 122) comprising an inspiratory chamber wall and an expiratory chamber wall, a proximal medial wall extending between the inspiratory chamber wall and the expiratory chamber wall, a proximal inner port, and a proximal outer port (82, 132), the proximal housing (54, 54', 122) being sealingly affixed to the distal housing (52, 52'), with the inspiratory chamber wall joined with the inspiratory chamber wall and the distal medial wall joined with the proximal medial wall to form an inspiratory pathway between the distal inner port and the proximal inner port, and the expiratory chamber wall joined with the expiratory chamber wall to form, together with the distal medial wall and the proximal medial wall, an expiratory pathway between the distal outer port and the proximal outer port (82, 132) that is fluidly sealed from the inspiratory pathway, the inspiratory pathway being laterally adjacent the expiratory pathway; and a first filter (100, 102) in the inspiratory pathway or in the expiratory pathway to filter gases flowing through the inspiratory pathway or the expiratory pathway.
A method for producing a rubber or elastomer medical device, which comprises a surface treatment layer on at least a part of its rubber or elastomer surface, wherein the surface treatment layer comprises a functional layer formed of a silane compound containing a polyoxyalkylene group, a metal salt-containing hydrophilic group, a halogen salt-containing hydrophilic group, or a fluorine-containing hydrophobic group, wherein the method comprises step 2 of functionalization using a silane compound containing a polyoxyalkylene group, a metal salt-containing hydrophilic group, a halogen salt-containing hydrophilic group, or a fluorine-containing hydrophobic group, and wherein the method comprises step 3 of maintaining a functionalized product obtained in step 2 at a humidity of 50% or more for 20 to 60 hours.