mhurhangee/ep-ind-claims huggingface dataset:
Running equation of time mechanism comprising a hand arrangement, whose purpose is to indicate the apparent or true solar time by means of a civil hour hand and a true solar minute hand concentric with the civil hour hand, the hand arrangement being devoid of a civil minute hand, the civil hour hand being pressed on a civil hour pipe driven in rotation by a timepiece movement and driving in turn a true solar minute pipe on which is pressed the true solar minute hand, the running equation of time mechanism also comprising an equation of time cam having a profile that is determined by the difference, on every day of the year, between the mean solar time or civil time, and the apparent solar time or true solar time, said equation of time cam being driven in rotation at the rate of one revolution per year by the timepiece movement, the position of the true solar minute hand being determined by the position of the equation of time cam, the running equation of time mechanism also including a differential gear device, a first input of which is formed by a cannon-pinion wheel, which is driven by the timepiece movement and which makes one revolution per hour, and a second input of which is formed by the equation of time cam, the differential gear device being arranged concentrically with respect to the true solar minute hand, the differential gear device including a planetary gear reduction wheel set, via which a cannon-pinion, on which the cannon-pinion wheel is fixed, drives the civil hour pipe on which is pressed the civil hour hand, and a planetary gear multiplier wheel set via which the civil hour pipe drives the true solar minute pipe on which is pressed the true solar minute hand.
A method of obtaining editable oil from mirabelle plum whereby in the first place pits are obtained from fresh or spoiled fruit and/or from fruit obtained from other food production processes, and are then subjected to pretreatment by drying or by microwaving, and then kernels are separated from the pits, after which first-pressed oil is obtained from the separated kernels by cold pressing, and the pressed cake is preferably subjected to further treatment, characterised in that, (i) the pits are dried in sunlight or in a flow of air at 20 to 35°C, until kernel humidity of up to 7% is obtained, or (ii) the pits are subjected to microwave treatment at 2200 - 2500 MHz for 1 to 15 minutes obtaining pit temperature of 100 - 140°C until humidity of 1.0-2.5% is obtained, after which the pits are cooled down to room temperature, or (iii) pits are subjected to heating for 20 - 60 minutes at 80°C to a humidity of 6% - 3.5%, after which the pits are cooled down to room temperature, and then pressing on a screw press is conducted while the temperature of the oil obtained should not exceed 40°C, and the oil obtained is directed to a settling tank for 24 to 48 h under a nitrogen cushion, after which the obtained first-pressed oil is filtered or centrifuged, wherein the pressed cake obtained from the first pressing is subjected to direct hexane extraction at 18 - 25°C in a known manner, and the oil obtained from solvent extraction is preferably subjected to refining in a known manner.
Floor panel, wherein this floor panel comprises at least a substrate and a decor provided thereon, wherein said substrate substantially consists of thermoplastic material and filler materials, said floor panel having a thickness of more than 3 millimeter, wherein said floor panel on two or more opposite edges comprises coupling means with which two of such floor panels can be coupled at the respective edges, such that they are locked together in a horizontal direction perpendicular to the respective edge and in the plane of the floor panels, whereby the substrate encloses one or more glass fiber cloths, characterised in that said floor panel has a length of 1.2 to 2.5 meters and a width of 0.1 to 0.3 meters, wherein the total weight of glass fiber cloths is more than 85 grams per square meter, and wherein said filler materials form at least 40 percent by weight of the substrate material. wherein said floor panel on two or more opposite edges comprises coupling means with which two of such floor panels can be coupled at the respective edges, such that they are locked together in a horizontal direction perpendicular to the respective edge and in the plane of the floor panels, whereby the substrate encloses one or more glass fiber cloths, characterised in that said floor panel has a length of 1.2 to 2.5 meters and a width of 0.1 to 0.3 meters, wherein the total weight of glass fiber cloths is more than 85 grams per square meter, and wherein said filler materials form at least 40 percent by weight of the substrate material.
A support assembly for a turbine system, the support assembly comprising: a transition duct extending between a fuel nozzle and a turbine section, the transition duct having an inlet, an outlet, and a passage extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of the transition duct offset from the inlet along the longitudinal axis; an annular contact member extending from the transition duct, the contact member configured to allow movement of the transition duct about at least one axis; and characterized by a support structure contacting the contact member and configured to locate the transition duct within the turbine system, the support structure having a generally curvilinear inner surface and a thickness that increases along the longitudinal axis towards the outlet. a transition duct extending between a fuel nozzle and a turbine section, the transition duct having an inlet, an outlet, and a passage extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of the transition duct offset from the inlet along the longitudinal axis; an annular contact member extending from the transition duct, the contact member configured to allow movement of the transition duct about at least one axis; and characterized by a support structure contacting the contact member and configured to locate the transition duct within the turbine system, the support structure having a generally curvilinear inner surface and a thickness that increases along the longitudinal axis towards the outlet.
An electric machine comprising: a stator having a plurality of stator windings; a rotor having a plurality of permanent magnets; a probe winding (21; 121; 321) fixed with respect to the stator and located close to the rotor to link a magnetic flux produced by at least one of the permanent magnets; a drive member (4, 5, 9, 10) for rotating the rotor at an angular speed (Ω); detecting means (24; 224) for detecting an induced electric quantity (V I; I I) at terminals of the probe winding (21; 121; 321) in response to passage of the permanent magnets close to the probe winding (21; 121; 321); and a processing unit configured to determine a magnetization level of the permanent magnets on the basis of the induced electric quantity (V I; I I) detected when the rotor is rotating; characterized by switching means controllable to alternatively connect the stator windings to external electric equipment, and set the stator windings to an open-circuit condition; wherein the processing unit is connected to the switching means, and is also configured to set the stator windings to an open-circuit condition, and to determine the magnetization level of the permanent magnets on the basis of the induced electric quantity (V I; I I) detected when the rotor is rotating with the stator windings in an open-circuit condition. a stator having a plurality of stator windings; a rotor having a plurality of permanent magnets; a probe winding (21; 121; 321) fixed with respect to the stator and located close to the rotor to link a magnetic flux produced by at least one of the permanent magnets; a drive member (4, 5, 9, 10) for rotating the rotor at an angular speed (Ω); detecting means (24; 224) for detecting an induced electric quantity (V I; I I) at terminals of the probe winding (21; 121; 321) in response to passage of the permanent magnets close to the probe winding (21; 121; 321); and a processing unit configured to determine a magnetization level of the permanent magnets on the basis of the induced electric quantity (V I; I I) detected when the rotor is rotating; characterized by switching means controllable to alternatively connect the stator windings to external electric equipment, and set the stator windings to an open-circuit condition; wherein the processing unit is connected to the switching means, and is also configured to set the stator windings to an open-circuit condition, and to determine the magnetization level of the permanent magnets on the basis of the induced electric quantity (V I; I I) detected when the rotor is rotating with the stator windings in an open-circuit condition.
Arrangement comprising an air duct and a functional element mounted in the air duct, wherein the air duct extends substantially in a longitudinal direction and has a duct wall which encloses a flow cross section and which has on its inner side at least one fastening device which has at least one linear rail which extends at least in sections in the duct longitudinal direction, and at least two undercut latching sections, wherein the functional element can be pushed onto the fastening device in the duct longitudinal direction, characterized in that the functional element has two latching feet which engage behind the undercut latching sections in order to fasten the functional element in the air duct.
An anti-IL-12/IL-23p40 antibody for use in a method of treating moderately to severely active ulcerative colitis in a human subject in need thereof, wherein the antibody comprises a heavy chain variable region of the amino acid sequence of SEQ ID NO:7 and a light chain variable region of the amino acid sequence of SEQ ID NO:8, wherein the method comprises: a. intravenously administering to the subject the antibody in a first pharmaceutical composition at week 0 of the treatment at a dosage of 260 mg for subjects with body weight ≥35 kg and ≤55 kg, 390 mg for subjects with body weight >55 kg and ≤85 kg, and 520 mg for subjects with body weight >85 kg, and b. subcutaneously administering to the subject the antibody in a second pharmaceutical composition at a dosage of 90 mg per administration, at week 8 of the treatment, and in a maintenance dose every 8 weeks or every 12 weeks after the treatment at week 8, wherein the subject is in corticosteroid-free clinical remission at least 44 weeks after week 0. wherein the antibody comprises a heavy chain variable region of the amino acid sequence of SEQ ID NO:7 and a light chain variable region of the amino acid sequence of SEQ ID NO:8, wherein the method comprises: a. intravenously administering to the subject the antibody in a first pharmaceutical composition at week 0 of the treatment at a dosage of 260 mg for subjects with body weight ≥35 kg and ≤55 kg, 390 mg for subjects with body weight >55 kg and ≤85 kg, and 520 mg for subjects with body weight >85 kg, and b. subcutaneously administering to the subject the antibody in a second pharmaceutical composition at a dosage of 90 mg per administration, at week 8 of the treatment, and in a maintenance dose every 8 weeks or every 12 weeks after the treatment at week 8, wherein the subject is in corticosteroid-free clinical remission at least 44 weeks after week 0. a. intravenously administering to the subject the antibody in a first pharmaceutical composition at week 0 of the treatment at a dosage of 260 mg for subjects with body weight ≥35 kg and ≤55 kg, 390 mg for subjects with body weight >55 kg and ≤85 kg, and 520 mg for subjects with body weight >85 kg, and b. subcutaneously administering to the subject the antibody in a second pharmaceutical composition at a dosage of 90 mg per administration, at week 8 of the treatment, and in a maintenance dose every 8 weeks or every 12 weeks after the treatment at week 8, wherein the subject is in corticosteroid-free clinical remission at least 44 weeks after week 0.
A surgical instrument, comprising: an elongate shaft assembly defining a shaft axis (SA-SA); a surgical end effector pivotally coupled to said elongate shaft assembly for selective articulation relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to, and laterally offset from, said shaft axis (SA-SA), said surgical end effector defining an end effector axis, said surgical end effector configured to be selectively articulated between an unarticulated position wherein said end effector axis is coaxially aligned with or parallel with said shaft axis (SA-SA) to a maximum articulated position on one side of said shaft axis (SA-SA) wherein said end effector axis is perpendicular to said shaft axis (SA-SA); and an articulation system operably interfacing with said surgical end effector to selectively move said surgical end effector between said unarticulated position and said articulated position, wherein said articulation system comprises: an end effector driver link coupled to said surgical end effector; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto. an elongate shaft assembly defining a shaft axis (SA-SA); a surgical end effector pivotally coupled to said elongate shaft assembly for selective articulation relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to, and laterally offset from, said shaft axis (SA-SA), said surgical end effector defining an end effector axis, said surgical end effector configured to be selectively articulated between an unarticulated position wherein said end effector axis is coaxially aligned with or parallel with said shaft axis (SA-SA) to a maximum articulated position on one side of said shaft axis (SA-SA) wherein said end effector axis is perpendicular to said shaft axis (SA-SA); and an articulation system operably interfacing with said surgical end effector to selectively move said surgical end effector between said unarticulated position and said articulated position, wherein said articulation system comprises: an end effector driver link coupled to said surgical end effector; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto. an end effector driver link coupled to said surgical end effector; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto.
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and an organic acid compound chosen from: i) a benzoic acid salt; ii) sorbic acid or a salt thereof; iii) methyl 4-hydroxybenzoate or propyl 4-hydroxybenzoate; iv) 5-n-octanoylsalicylic acid; v) a hydroxamic acid or a salt thereof, of formula: R-C(=O)-NH-OH in which R represents a linear or branched, saturated or unsaturated C 5 to C 11 alkyl radical; vi) dehydroacetic acid or a salt thereof. i) a benzoic acid salt; ii) sorbic acid or a salt thereof; iii) methyl 4-hydroxybenzoate or propyl 4-hydroxybenzoate; iv) 5-n-octanoylsalicylic acid; v) a hydroxamic acid or a salt thereof, of formula: R-C(=O)-NH-OH in which R represents a linear or branched, saturated or unsaturated C 5 to C 11 alkyl radical; vi) dehydroacetic acid or a salt thereof.
A method for facilitating an automated user login into a first application hosted by a first-screen device, the method comprising: detecting (320,406), by a second-screen device, a message transmitted by the first-screen device over a network, the message comprising an authentication code provided to the first-screen device by a server device; determining (322,408), based on the message, that the first application hosted by the first-screen device is requesting user authentication for the automated user login into the first application; presenting (324,410), via a second application hosted by the second-screen device, a prompt for user input indicating user acceptance of the automated user login into the first application; receiving (326,412) the user input indicating the user acceptance of the automated user login into the first application; and responsive to the user input, transmitting (328, 414) the authentication code from the detected message to the server device, the server device transmitting to the first-screen device credentials to perform the user authentication for the automated user login into the first application hosted by the first-screen device. detecting (320,406), by a second-screen device, a message transmitted by the first-screen device over a network, the message comprising an authentication code provided to the first-screen device by a server device; determining (322,408), based on the message, that the first application hosted by the first-screen device is requesting user authentication for the automated user login into the first application; presenting (324,410), via a second application hosted by the second-screen device, a prompt for user input indicating user acceptance of the automated user login into the first application; receiving (326,412) the user input indicating the user acceptance of the automated user login into the first application; and responsive to the user input, transmitting (328, 414) the authentication code from the detected message to the server device, the server device transmitting to the first-screen device credentials to perform the user authentication for the automated user login into the first application hosted by the first-screen device.
A biomaterial implant, medical device or bioprosthesis, wherein a surface or part thereof is coated with a nanoreservoir attached to said surface comprising nanoparticles of a nanogel, wherein the nanogel comprises a first polymer of a Formula I: crosslinked to a second polymer comprising a hydrophilic backbone and one or more reactive moieties, wherein the nanoreservoir further comprises one or more bioactive molecules, therapeutic molecules or drugs that are released from within the nanoreservoir.
Flexible conduit element for the exhaust gas system of a vehicle, comprising a flexible bellows member with corrugations along its longitudinal axis, which corrugations viewed in a cross section along the longitudinal axis comprise alternating concave sections and convex sections, said bellows being formed by a hydroforming process, wherein the convex sections viewed in the axial cross section comprise in a radial direction an inner portion and an outer portion, the inner portion comprises two inner straight portions which are parallel to each other, the outer portion comprises a tip portion connecting two outer straight portions, the two outer straight portions extend from the tip portion and are parallel to each other, and the inner portion and the outer portion are connected by at least a connecting portion having a continuous curvature and a turning point in curvature, characterized in that the axial distance of the inner straight sections is more than 5 times larger than the axial distance of the outer straight sections when viewed in the axial cross section respectively.
A device-to-device, D2D, operation method performed by a terminal in a wireless communication system, the D2D operation method comprising: acquiring configuration information indicating a first type resource and a second type resource that can be used in a D2D operation; selecting one from the first type resource and the second type resource; and performing the D2D operation using the selected type resource, wherein the first type resource is a resource which has not been reported purposes of the resource to the terminal and the second type resource is a resource which has been reported purposes of the resource to the terminal, and wherein the first type resource is used when the terminal performs a communication with another terminal for a commercial purpose and the second type resource is used when the terminal performs a communication with another terminal for a public safety. acquiring configuration information indicating a first type resource and a second type resource that can be used in a D2D operation; selecting one from the first type resource and the second type resource; and performing the D2D operation using the selected type resource, wherein the first type resource is a resource which has not been reported purposes of the resource to the terminal and the second type resource is a resource which has been reported purposes of the resource to the terminal, and wherein the first type resource is used when the terminal performs a communication with another terminal for a commercial purpose and the second type resource is used when the terminal performs a communication with another terminal for a public safety.
A method for producing heating in a high temperature heat pump having a heat exchanger comprising extracting heat from a working fluid, thereby producing a cooled working fluid wherein the working fluid comprises at least one alkyl perfluoroalkene ether, and wherein the heat exchanger operates at a temperature greater than 150°C.
A method to generate color output signals in response to input signals from an image capture device, the method comprising: receiving first, second, and third input signals from the image capture device; generating an input scale factor (Σ) in response to the input signals; generating first and second chromaticity signals (p,q) in response to the input signals; mapping the first and second chromaticity signals to first and second preliminary color signals (x,y), characterized in that the mapping involves two-dimensional transformation of the first and second chromaticity signals to the first and second preliminary color signals respectively, and further characterized by mapping the first and second chromaticity signals to a preliminary scale factor (Σ̃ out), wherein the mapping involves a two-dimensional transformation of the first and second chromaticity signals to the preliminary scale factor; generating an output scaling factor (Σ out) by multiplying the preliminary scale factor with the input scale factor; and generating a set of output color signals (X,Y,Z) in response to the output scaling factor and the first and second preliminary color signals. receiving first, second, and third input signals from the image capture device; generating an input scale factor (Σ) in response to the input signals; generating first and second chromaticity signals (p,q) in response to the input signals; mapping the first and second chromaticity signals to first and second preliminary color signals (x,y), characterized in that the mapping involves two-dimensional transformation of the first and second chromaticity signals to the first and second preliminary color signals respectively, and further characterized by mapping the first and second chromaticity signals to a preliminary scale factor (Σ̃ out), wherein the mapping involves a two-dimensional transformation of the first and second chromaticity signals to the preliminary scale factor; generating an output scaling factor (Σ out) by multiplying the preliminary scale factor with the input scale factor; and generating a set of output color signals (X,Y,Z) in response to the output scaling factor and the first and second preliminary color signals.