mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for treating urinary incontinence, comprising: (a) a plurality of rods, each rod comprising a proximal section, a midsection and a distal section; (b) an anchor base; and (c) an expansion mechanism; characterised in further comprising a support base, the anchor base and the support base adapted to engage and retain each rod at the proximal section and the midsection respectively; and in the expansion mechanism comprising a hub and a spoke for each rod, (i) each spoke adapted at a distal end thereof to engage and retain a distal section of a rod; and (ii) the hub adapted to contact a neck of the support base. (a) a plurality of rods, each rod comprising a proximal section, a midsection and a distal section; (b) an anchor base; and (c) an expansion mechanism; (i) each spoke adapted at a distal end thereof to engage and retain a distal section of a rod; and (ii) the hub adapted to contact a neck of the support base.
Method for gassing a plurality of bioreactors (2.1, 2.2) comprising the following steps - providing a constant gas flow, - supplying the constant gas flow into a container with a liquid filling, - dividing the gas flow into a plurality of partial gas flows (9.1, 9.2), - introducing each partial gas flow (9.1, 9.2) into the liquid filling, wherein each partial gas flow (9.1, 9.2) is introduced into a separate riser (7.1, 7.2) having a lower opening (7.3, 7.4) for each partial gas flow (9.1, 9.2) and each riser (7.1, 7.2) dips into the liquid filling, and - supplying the ascending partial gas flow (9.1, 9.2) in each riser (7.1, 7.2) to the interior of one of the bioreactors (2.1, 2.2) via a gas line (10.1, 10.2) connected in a gastight manner to an upper opening (7.5, 7.6) of each riser (7.1, 7.2). - providing a constant gas flow, - supplying the constant gas flow into a container with a liquid filling, - dividing the gas flow into a plurality of partial gas flows (9.1, 9.2), - introducing each partial gas flow (9.1, 9.2) into the liquid filling, wherein each partial gas flow (9.1, 9.2) is introduced into a separate riser (7.1, 7.2) having a lower opening (7.3, 7.4) for each partial gas flow (9.1, 9.2) and each riser (7.1, 7.2) dips into the liquid filling, - supplying the ascending partial gas flow (9.1, 9.2) in each riser (7.1, 7.2) to the interior of one of the bioreactors (2.1, 2.2) via a gas line (10.1, 10.2) connected in a gastight manner to an upper opening (7.5, 7.6) of each riser (7.1, 7.2).
Urethane resin particles for slush mold comprising a urethane resin and an additive, wherein the urethane resin particles have a shape factor SF1 of 101 to 200, a shape factor SF2 of 120 to 240, and a central particle diameter of 20 to 500 μm, wherein the ratio of the 90% particle diameter to the 10% particle diameter is from 2.0 to 3.0.
System for monitoring a latched/non-latched state of a hook-keeper unit of an aeronautical structure, wherein the hook-keeper unit comprises a hook and a keeper, the system comprising: ▪ the hook-keeper unit configured to be in a latched state and in a non-latched state, ▪ a mechanical warning element configured to be in an exposed state and in an unexposed state, and ▪ a connecting mechanism comprising a first end (5.1) coupled to the hook-keeper unit, and a second end (5.2) coupled to the mechanical warning element, the connecting mechanism being configured to automatically transmit the latched/non-latched state of the hook-keeper unit to the mechanical warning element, wherein the hook-keeper unit and the mechanical warning element are coupled between them by the connecting mechanism in an automatic bijective relationship, so that: i. when the hook-keeper unit is in the latched state, the mechanical warning element automatically is in the unexposed state, and ii. when the hook-keeper unit is in the non-latched state, the mechanical warning element automatically is in the exposed state; wherein the latched state corresponds to the state in which the hook is engaged with the keeper, and the non-latched state corresponds to the state in which the hook is not engaged with the keeper; and the connecting mechanism comprises at the first end (5.1) a tilting piece (5.3), the tilting piece (5.3) comprising two portions (5.3.1, 5.3.3) fixedly joined by a tilting axis (5.3.2), wherein a first portion (5.3.1) is rotatably joined to the hook-keeper unit and the second portion (5.3.3) is connected to an substantially inextensible coupling element (5.4) of the connecting mechanism. ▪ the hook-keeper unit configured to be in a latched state and in a non-latched state, ▪ a mechanical warning element configured to be in an exposed state and in an unexposed state, and ▪ a connecting mechanism comprising a first end (5.1) coupled to the hook-keeper unit, and a second end (5.2) coupled to the mechanical warning element, the connecting mechanism being configured to automatically transmit the latched/non-latched state of the hook-keeper unit to the mechanical warning element, i. when the hook-keeper unit is in the latched state, the mechanical warning element automatically is in the unexposed state, and ii. when the hook-keeper unit is in the non-latched state, the mechanical warning element automatically is in the exposed state; the latched state corresponds to the state in which the hook is engaged with the keeper, and the non-latched state corresponds to the state in which the hook is not engaged with the keeper; and the connecting mechanism comprises at the first end (5.1) a tilting piece (5.3), the tilting piece (5.3) comprising two portions (5.3.1, 5.3.3) fixedly joined by a tilting axis (5.3.2), wherein a first portion (5.3.1) is rotatably joined to the hook-keeper unit and the second portion (5.3.3) is connected to an substantially inextensible coupling element (5.4) of the connecting mechanism.
A method for operating a virtualization layer comprising a hypervisor, wherein the method is operated on a virtual machine (114; 116) comprising a guest operating system (116; 118), wherein the guest operating system comprises a guest kernel, and virtual processors managed by the virtualization layer, wherein the guest kernel is configured to issue guest instructions to the virtual processors; wherein the method performed by the virtualization layer comprises: capturing and storing, into a trace file, indicia of whichever guest instructions are issued by the guest kernel to the virtual processors, wherein the trace file comprising sets of instruction indicia, each set comprising chunks, wherein instructions within each set preserve causality of the executed guest instructions, wherein the chunks within a set preserve causality with respect to each other due to monotonically increasing markers between context switches, and wherein at least two sets respectively correspond to traces of two execution units concurrently executed by the virtualization layer. a guest operating system (116; 118), wherein the guest operating system comprises a guest kernel, and virtual processors managed by the virtualization layer, wherein the guest kernel is configured to issue guest instructions to the virtual processors; wherein the method performed by the virtualization layer comprises: capturing and storing, into a trace file, indicia of whichever guest instructions are issued by the guest kernel to the virtual processors, wherein the trace file comprising sets of instruction indicia, each set comprising chunks, wherein instructions within each set preserve causality of the executed guest instructions, wherein the chunks within a set preserve causality with respect to each other due to monotonically increasing markers between context switches, and wherein at least two sets respectively correspond to traces of two execution units concurrently executed by the virtualization layer. wherein the trace file comprising sets of instruction indicia, each set comprising chunks, wherein instructions within each set preserve causality of the executed guest instructions, wherein the chunks within a set preserve causality with respect to each other due to monotonically increasing markers between context switches, and wherein at least two sets respectively correspond to traces of two execution units concurrently executed by the virtualization layer.
A method for vegetative propagation of woody plants from prepared leaf cuttings, wherein the woody plants correspond to individuals from Eucalyptus sp., wherein the method comprises the following steps: a) providing cuts of leaf cuttings from an Eucalyptus donor tree, where the leaf cutting cuts correspond to season shoots, where the shoots are semi-mature with expanded and developed leaves with a bud, and maintaining a stem section of up to 3 cm above and below the bud, where the leaves are of a length 6 to 6.5 cm and where the opposite leaves are separated at the attachment site with a longitudinal cut between the two leaves, dividing the stem into two cuttings, b) immersing the prepared leaf cutting into a composition comprising-growth regulators of the cytokine type and of the auxin type wherein said growth regulators are selected from, IBA+ZEA; IBA+BAP; or IBA+TDZ for 30 minutes at a concentration equal to or less than 10 mgL -1 of each, and high auxin levels in a concentration range of 4 to 10 mgL -1 c) planting the prepared leaf cutting into a previously sterilized sand substrate or in a substrate mixture composed of previously sterilized peat and sand, in a tube production system or on a naked root, in a warm bed, d) inducing sprouting and rooting of the prepared leaf cutting, by means of controlled ambient temperature, humidity and illumination, where the temperature varies in minimum and maximum ranges from 21 to 29°C, ambient humidity of 65-85%, and the minimum brightness during the day is 15000 lux and the maximum is 930 μmolm 2 s -1, wherein steps a) through d) always occur outside an in vitro environment. a) providing cuts of leaf cuttings from an Eucalyptus donor tree, where the leaf cutting cuts correspond to season shoots, where the shoots are semi-mature with expanded and developed leaves with a bud, and maintaining a stem section of up to 3 cm above and below the bud, where the leaves are of a length 6 to 6.5 cm and where the opposite leaves are separated at the attachment site with a longitudinal cut between the two leaves, dividing the stem into two cuttings, b) immersing the prepared leaf cutting into a composition comprising-growth regulators of the cytokine type and of the auxin type wherein said growth regulators are selected from, IBA+ZEA; IBA+BAP; or IBA+TDZ for 30 minutes at a concentration equal to or less than 10 mgL -1 of each, and high auxin levels in a concentration range of 4 to 10 mgL -1 c) planting the prepared leaf cutting into a previously sterilized sand substrate or in a substrate mixture composed of previously sterilized peat and sand, in a tube production system or on a naked root, in a warm bed, d) inducing sprouting and rooting of the prepared leaf cutting, by means of controlled ambient temperature, humidity and illumination, where the temperature varies in minimum and maximum ranges from 21 to 29°C, ambient humidity of 65-85%, and the minimum brightness during the day is 15000 lux and the maximum is 930 μmolm 2 s -1,
A method of fabricating an optical modulator semiconductor device, comprising the steps of: providing a semiconductor material in planar form; forming a slab waveguide structure from said semiconductor material by an anisotropic etch, the slab waveguide structure including a rib waveguide having a width W; depositing a thin layer of an insulator conformally on top of the slab waveguide; implanting n-type and p-type dopants into said slab waveguide in multiple implantation steps to produce n-type and p-type regions, respectively, wherein an implantation window of n dopants and an implantation window of p dopants have an overlapping region width D in the rib waveguide; controlling an overlapping ratio D/W to produce a p-type region and an n-type region sharing a non-planar junction interface as viewed in a cross section taken perpendicular to a light propagation direction in said optical waveguide, wherein the non-planar junction interface is configured to form two p/n junctions disposed with overlapping p-type and n-type regions in a direction normal to the substrate; and annealing said implanted slab waveguide structure; thereby forming within said slab waveguide structure a non-planar common junction configured to increase a junction area between said n-type region and said p-type region per unit length of said length dimension of said junction, so as to so as to enhance an overlap between an optical mode in said optical waveguide and said junction area when said optical modulator semiconductor device is operational. providing a semiconductor material in planar form; forming a slab waveguide structure from said semiconductor material by an anisotropic etch, the slab waveguide structure including a rib waveguide having a width W; depositing a thin layer of an insulator conformally on top of the slab waveguide; implanting n-type and p-type dopants into said slab waveguide in multiple implantation steps to produce n-type and p-type regions, respectively, wherein an implantation window of n dopants and an implantation window of p dopants have an overlapping region width D in the rib waveguide; controlling an overlapping ratio D/W to produce a p-type region and an n-type region sharing a non-planar junction interface as viewed in a cross section taken perpendicular to a light propagation direction in said optical waveguide, wherein the non-planar junction interface is configured to form two p/n junctions disposed with overlapping p-type and n-type regions in a direction normal to the substrate; and annealing said implanted slab waveguide structure; thereby forming within said slab waveguide structure a non-planar common junction configured to increase a junction area between said n-type region and said p-type region per unit length of said length dimension of said junction, so as to so as to enhance an overlap between an optical mode in said optical waveguide and said junction area when said optical modulator semiconductor device is operational.
Autonomous facet suitable for use as reflective element of a solar concentrator, which comprises: - a sandwiched layer (6, 7, 8) arrangement, including a front layer which comprises a reflective surface of the facet; an intermediate layer; and a rear layer for insulating and/or supporting the intermediate layer, characterized in that said facet further comprises: - one or more self-calibration sensors for orientating the reflective surface towards the solar position and/or a radiation receiver; wherein: - said sensors are integrated, at least in part, in the front layer of the facet and arranged at one or more housings formed at the intermediate layer thereof; and - at least one sensor comprises a front surface which is levelled with the reflective surface of the facet. - a sandwiched layer (6, 7, 8) arrangement, including a front layer which comprises a reflective surface of the facet; an intermediate layer; and a rear layer for insulating and/or supporting the intermediate layer, characterized in that said facet further comprises: - one or more self-calibration sensors for orientating the reflective surface towards the solar position and/or a radiation receiver; wherein: - said sensors are integrated, at least in part, in the front layer of the facet and arranged at one or more housings formed at the intermediate layer thereof; and - at least one sensor comprises a front surface which is levelled with the reflective surface of the facet. - said sensors are integrated, at least in part, in the front layer of the facet and arranged at one or more housings formed at the intermediate layer thereof; and - at least one sensor comprises a front surface which is levelled with the reflective surface of the facet.
n electric motor stator comprising: a stator core having a plurality of teeth and slots, each slot being formed between circumferentially adjacent teeth; and a plurality of windings, a part of each winding being wound around teeth of the stator core, wherein each of the plurality of windings includes parts constituting, respectively, a neutral wire connected to a neutral point, a first tooth winding portion following the neutral wire and wound around one of two opposed teeth, a crossover wire following the first tooth winding portion, a power wire following the crossover wire, a second tooth winding portion following the power wire and wound around the other of the two opposed teeth, and another neutral wire following the second tooth winding portion and connected to the neutral point, and wherein the electric motor stator further comprises an insulator having support portions that are placed at a bottom of the respective slots to prevent the first and second tooth winding portions (11a, 11b) from falling radially outwards, characterized in that: the power wire is drawn out from the second tooth winding portion, and held between the second tooth winding portion and the insulator so as to be fixed, the another neutral wire is drawn out from the second tooth winding portion, the insulator is provided with a wiring separator to keep the power wire and the neutral wire spaced from each other by a predetermined distance, and the drawn out power wires of the plurality of windings are bundled together to form a lead wire which is drawn out. a stator core having a plurality of teeth and slots, each slot being formed between circumferentially adjacent teeth; and a plurality of windings, a part of each winding being wound around teeth of the stator core, wherein each of the plurality of windings includes parts constituting, respectively, a neutral wire connected to a neutral point, a first tooth winding portion following the neutral wire and wound around one of two opposed teeth, a crossover wire following the first tooth winding portion, a power wire following the crossover wire, a second tooth winding portion following the power wire and wound around the other of the two opposed teeth, and another neutral wire following the second tooth winding portion and connected to the neutral point, and wherein the electric motor stator further comprises an insulator having support portions that are placed at a bottom of the respective slots to prevent the first and second tooth winding portions (11a, 11b) from falling radially outwards, the power wire is drawn out from the second tooth winding portion, and held between the second tooth winding portion and the insulator so as to be fixed, the another neutral wire is drawn out from the second tooth winding portion, the insulator is provided with a wiring separator to keep the power wire and the neutral wire spaced from each other by a predetermined distance, and the drawn out power wires of the plurality of windings are bundled together to form a lead wire which is drawn out.
A method comprising: receiving, by a mobile device, data for a transceiver, wherein the data includes location coordinates of the terrestrial transceiver, and wherein the location coordinates include an error term upon transmission of the data, the error term being included to obfuscate location of the terrestrial transceiver; determining the error term based on the data; and determining a corrected location of the terrestrial transceiver based on removing the error term from the location coordinates. receiving, by a mobile device, data for a transceiver, wherein the data includes location coordinates of the terrestrial transceiver, and wherein the location coordinates include an error term upon transmission of the data, the error term being included to obfuscate location of the terrestrial transceiver; determining the error term based on the data; and determining a corrected location of the terrestrial transceiver based on removing the error term from the location coordinates.
A method for transmitting data via a power-line network, the method comprising: receiving data bits to be transmitted; loading multiple copies of the data bits in a multi-dimension modulation scheme matrix, the dimensions being selected from frequency, time and code, each dimension being divided into sub-groups, allocating copies of each data bit within the matrix according to a predetermined arrangement so that within each dimension copies of the same data bit reside within different sub-groups, wherein within each dimension the predetermined arrangement specifies positions of the copies of the data bits, such that the position of each successive copy of a respective data bit is specified according to a progression with respect to the position of the preceding copy of that data bit; wherein the progression for one or more of the dimensions is based on an arithmetic function, and wherein for the frequency dimension, the number of sub-groups between successive copies of a respective data bit varies across the matrix; modulating a signal in accordance with the modulation scheme matrix; and transmitting the signal via a mains power line. receiving data bits to be transmitted; loading multiple copies of the data bits in a multi-dimension modulation scheme matrix, the dimensions being selected from frequency, time and code, each dimension being divided into sub-groups, allocating copies of each data bit within the matrix according to a predetermined arrangement so that within each dimension copies of the same data bit reside within different sub-groups, wherein within each dimension the predetermined arrangement specifies positions of the copies of the data bits, such that the position of each successive copy of a respective data bit is specified according to a progression with respect to the position of the preceding copy of that data bit; wherein the progression for one or more of the dimensions is based on an arithmetic function, and wherein for the frequency dimension, the number of sub-groups between successive copies of a respective data bit varies across the matrix; modulating a signal in accordance with the modulation scheme matrix; and transmitting the signal via a mains power line.
A pharmaceutical composition for use as a medicament for the treatment of hepatitis B virus infection in a human, comprising: a first active pharmaceutical ingredient consisting of more than 400 mg to 1500 mg of lamivudine, (2R, cis)-4-amino-1-(2-hydroxymethyl-1,3-oxathiolan-5-yl)-pyrimidin-2-one, or a therapeutically equivalent amount of a pharmaceutically acceptable salt or ester thereof; and a second active pharmaceutical ingredient consisting of 1 mg to 10 mg of adefovir dipivoxil, bis(pivaloyloxymethyl)(9-[ -2(phosphonomethoxy)ethyl]adenine, or a therapeutically equivalent amount of a pharmaceutically acceptable salt or ester thereof. a first active pharmaceutical ingredient consisting of more than 400 mg to 1500 mg of lamivudine, (2R, cis)-4-amino-1-(2-hydroxymethyl-1,3-oxathiolan-5-yl)-pyrimidin-2-one, or a therapeutically equivalent amount of a pharmaceutically acceptable salt or ester thereof; and a second active pharmaceutical ingredient consisting of 1 mg to 10 mg of adefovir dipivoxil, bis(pivaloyloxymethyl)(9-[ -2(phosphonomethoxy)ethyl]adenine, or a therapeutically equivalent amount of a pharmaceutically acceptable salt or ester thereof.