mhurhangee/ep-ind-claims huggingface dataset:
A catadioptric optical telescope having a modified Maksutov-Cassegrain optical structure, comprising: an axially elongated housing having a generally cylindrical interior and entrance and exit ends; a spherical meniscus corrector lens mounted at the entrance end of the housing, the corrector lens comprising: a first spherical surface and a second spherical surface, and a centrally located reflective coating located on the second surface; a primary mirror mounted at the exit end of the housing, the primary mirror being a Mangin mirror and comprising a central aperture, first and second surfaces, and a reflective coating located on the second surface; and a field flattener lens located within the central aperture of the primary mirror and being axially aligned with the corrector lens and primary mirror; the corrector lens and primary mirror being axially aligned and having their first surfaces facing each other within the interior of the housing, wherein the corrector lens is configured to disperse incoming rays radially outwardly towards the primary mirror, wherein the primary mirror is a negative meniscus lens with a circular aperture in its center, the primary mirror being configured so that rays are reflected only from its second surface, wherein the primary mirror is configured so that, after reflection from the second surface of the primary mirror, the rays are made incident upon the reflective coating that is located on the second surface of the spherical meniscus corrector lens. an axially elongated housing having a generally cylindrical interior and entrance and exit ends; a spherical meniscus corrector lens mounted at the entrance end of the housing, the corrector lens comprising: a first spherical surface and a second spherical surface, and a centrally located reflective coating located on the second surface; a primary mirror mounted at the exit end of the housing, the primary mirror being a Mangin mirror and comprising a central aperture, first and second surfaces, and a reflective coating located on the second surface; and a first spherical surface and a second spherical surface, and a centrally located reflective coating located on the second surface; a primary mirror mounted at the exit end of the housing, the primary mirror being a Mangin mirror and comprising a central aperture, first and second surfaces, and a reflective coating located on the second surface; and a field flattener lens located within the central aperture of the primary mirror and being axially aligned with the corrector lens and primary mirror; the corrector lens and primary mirror being axially aligned and having their first surfaces facing each other within the interior of the housing, wherein the primary mirror is a negative meniscus lens with a circular aperture in its center, the primary mirror being configured so that rays are reflected only from its second surface, wherein the primary mirror is configured so that, after reflection from the second surface of the primary mirror, the rays are made incident upon the reflective coating that is located on the second surface of the spherical meniscus corrector lens.
Method for joining a pole tube for a solenoid actuator, in particular for a hydraulic valve, comprising the steps of: - providing a pole piece, a non-magnetic intermediate piece and a tube piece, wherein at least two of these parts to be joined are formed from material with differing conductivity and the adjacent end faces (38, 40, 78, 87) of which are formed in such a way that they can be connected to one another by electrical fusion, and by way of which an armature space for receiving an armature can be formed, - shaping the end faces (38, 40, 78, 87) before the fusion, taking into account the melting points of the materials used in such a way that the electrical resistance of the parts to be joined (2, 4, 6) in the joining region (34, 36) is substantially the same, wherein the part to be joined of the material with the lower resistivity is formed at the end face with a smaller cross-sectional area (46, 64) than the other part to be joined with the greater resistivity, and - joining the parts to be joined (2, 4, 6) by electrical fusion. - providing a pole piece, a non-magnetic intermediate piece and a tube piece, wherein at least two of these parts to be joined are formed from material with differing conductivity and the adjacent end faces (38, 40, 78, 87) of which are formed in such a way that they can be connected to one another by electrical fusion, and by way of which an armature space for receiving an armature can be formed, - shaping the end faces (38, 40, 78, 87) before the fusion, taking into account the melting points of the materials used in such a way that the electrical resistance of the parts to be joined (2, 4, 6) in the joining region (34, 36) is substantially the same, wherein the part to be joined of the material with the lower resistivity is formed at the end face with a smaller cross-sectional area (46, 64) than the other part to be joined with the greater resistivity, and - joining the parts to be joined (2, 4, 6) by electrical fusion.
A method of controlling a gas turbine engine comprising: receiving an instantaneous thrust demand for current operation of the gas turbine engine; determining a flow rate and/or pressure ratio for a compressor (14,15) of the gas turbine engine, the flow rate and/or the pressure ratio being directly measured; determining whether the flow rate and/or the pressure ratio meets a predetermined operating condition for the compressor; and adjusting an angle of one or more aerofoil of the compressor according to a closed control loop if the flow rate and/or pressure ratio do not meet said predetermined operating condition in order to adjust the flow rate and/or pressure ratio towards said predetermined operating condition; and concurrently adjusting a fuel flow to a combustor of the gas turbine engine in order to meet the thrust demand. receiving an instantaneous thrust demand for current operation of the gas turbine engine; determining a flow rate and/or pressure ratio for a compressor (14,15) of the gas turbine engine, the flow rate and/or the pressure ratio being directly measured; determining whether the flow rate and/or the pressure ratio meets a predetermined operating condition for the compressor; and adjusting an angle of one or more aerofoil of the compressor according to a closed control loop if the flow rate and/or pressure ratio do not meet said predetermined operating condition in order to adjust the flow rate and/or pressure ratio towards said predetermined operating condition; and concurrently adjusting a fuel flow to a combustor of the gas turbine engine in order to meet the thrust demand.
A motor-operated valve comprising a valve body in which a valve chest and an orifice that is open to the valve chest are formed; a valve stem which is mounted in the valve body so as to be movable in the axial direction and has a valve element capable of coming close to and going away from the orifice in the valve chest side, which valve element is provided in the tip end portion thereof; and a driving mechanism which is additionally provided on the valve body to control the flow rate of a fluid passing through the orifice and has a stepping motor and a converting means (45, 47) for converting the rotation of the stepping motor into the axial movement of the valve stem, wherein the valve stem has an engaging portion for restricting the movement in the valve closing direction of the valve stem by engaging to a stopper formed on the valve body at the valve closing position of the valve element, which engaging portion is provided in an intermediate portion in the axial direction, and wherein the valve element forms a small clearance between the valve element and the orifice at the valve closing position to form a bleed port, characterized in that said converting means (45, 47) comprise - a rotating screw feeding member having a female screw portion and - a fixed cylindrical guide bush having a male screw portion threadedly engaging with said female screw portion; - said valve stem being inserted in said fixed cylindrical guide bush and being able to move axially with respect to it, and wherein a stopper mechanism (67, 68) is provided between the screw feeding member and the valve body to stop the screw feeding member after the screw feeding member has further moved continuously in the valve closing direction of the valve stem in a state in which the engaging portion is contacted to the stopper. - a rotating screw feeding member having a female screw portion and - a fixed cylindrical guide bush having a male screw portion threadedly engaging with said female screw portion; - said valve stem being inserted in said fixed cylindrical guide bush and being able to move axially with respect to it,
A method of increasing expression of an antibody or fragment thereof comprising: (a) (i) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell expressing the antibody or fragment thereof; (ii) effecting expression of the antibody or fragment thereof in an eukaryotic cell comprising an increased expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity; or (iii) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell; and effecting expression of the antibody or fragment thereof; and b) incubating the cell under suitable conditions for a suitable length of time to produce antibody of fragment thereof, wherein the increased ABC50 expression is relative to a control cell, wherein the control cell is an eukaryotic cell expressing the antibody or fragment thereof and wherein the control cell does not have increased expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity. (a) (i) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell expressing the antibody or fragment thereof; (ii) effecting expression of the antibody or fragment thereof in an eukaryotic cell comprising an increased expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity; or (iii) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell; and effecting expression of the antibody or fragment thereof; and (i) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell expressing the antibody or fragment thereof; (ii) effecting expression of the antibody or fragment thereof in an eukaryotic cell comprising an increased expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity; or (iii) increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell; and effecting expression of the antibody or fragment thereof; and increasing the expression of an ABC50 protein or a fragment thereof having protein synthesis increasing activity and eIF2 binding activity in an eukaryotic cell; and effecting expression of the antibody or fragment thereof; and b) incubating the cell under suitable conditions for a suitable length of time to produce antibody of fragment thereof,
A system for handling objects, the system comprising: a first object source operative to present objects; a second object source operative to present objects; a first object delivery path operative to transport objects presented by the first object source to a first destination; a second object delivery path operative to transport objects presented by the second object source to a second destination, wherein the first and second destinations (122, 124) may be a single destination, separate destinations or interchangeable destinations; a sensor module operative to sense at least one aspect of a delivered object, the sensor module being accessible from the first object delivery path and the second object delivery path; and, a controller operative to receive information from the sensor module regarding the sensed at least one aspect of the objects delivered to the sensor module and thereby, monitor and if appropriate, adjust or compensate for at least one aspect of the first and second object sources and to direct a removal of delivered objects from the sensor module, wherein the objects are document sheets, characterized in that the sensor module is accessible from the first object delivery path and the second object delivery path via an auxiliary path and wherein the sensor module is positioned adjacent to the auxiliary path, outside a flow of main document processing job production. a first object source operative to present objects; a second object source operative to present objects; a first object delivery path operative to transport objects presented by the first object source to a first destination; a second object delivery path operative to transport objects presented by the second object source to a second destination, wherein the first and second destinations (122, 124) may be a single destination, separate destinations or interchangeable destinations; a sensor module operative to sense at least one aspect of a delivered object, the sensor module being accessible from the first object delivery path and the second object delivery path; and, a controller operative to receive information from the sensor module regarding the sensed at least one aspect of the objects delivered to the sensor module and thereby, monitor and if appropriate, adjust or compensate for at least one aspect of the first and second object sources and to direct a removal of delivered objects from the sensor module, wherein the objects are document sheets, the sensor module is accessible from the first object delivery path and the second object delivery path via an auxiliary path and wherein the sensor module is positioned adjacent to the auxiliary path, outside a flow of main document processing job production.
A slab ceiling element or double wall element of reinforced concrete and with lattice girders (32, 42), with a structural element for the sound absorption in rooms, which is installed in the slab ceiling or the double wall on a surface (33, 44) thereof so as to be flush with this surface, wherein said structural element comprises a hollow body that is open on one side and serves for being installed into a ceiling or a wall (3, 4) so as to be flush with its surface, a bottom and a sidewall that peripherally extends around this bottom, wherein the sidewall has on its peripheral edge an edge strip that partially or entirely extends around this edge, wherein the edge strip is flush with the surface of the ceiling or wall in the installed state, and wherein a sound absorber can be inserted into the hollow space after its installation in the ceiling or the wall.
A drive controller for an electric motor, comprising: a first motor control unit for performing, when a first control mode in which a rectangular wave voltage is applied to an AC electric motor is selected, feedback control for adjusting phase (φv) of said rectangular wave voltage in accordance with torque deviation from a torque command value (Trqcom); a second motor control unit for performing, when a second control mode in which a voltage applied to said AC electric motor is controlled in accordance with pulse width modulation control is selected, feedback control of a motor current (MCRT); and a mode switching determining unit for determining whether switching between said first and second control modes is necessary, characterized in that said mode switching determining unit is configured to determine whether switching between said first and second control modes is necessary based on a state of said AC electric motor, and to operate in a prescribed period (Tm) longer than a control period (Tc) of said first motor control unit; wherein said mode switching determining unit is configured to permit, when switching from said first control mode to said second control mode is determined to be necessary, switching from said first control mode to said second control mode at a next operation timing, and to inhibit updating of a phase of said rectangular wave voltage by said first motor control unit until said next operation timing. a first motor control unit for performing, when a first control mode in which a rectangular wave voltage is applied to an AC electric motor is selected, feedback control for adjusting phase (φv) of said rectangular wave voltage in accordance with torque deviation from a torque command value (Trqcom); a second motor control unit for performing, when a second control mode in which a voltage applied to said AC electric motor is controlled in accordance with pulse width modulation control is selected, feedback control of a motor current (MCRT); and a mode switching determining unit for determining whether switching between said first and second control modes is necessary, characterized in that said mode switching determining unit is configured to determine whether switching between said first and second control modes is necessary based on a state of said AC electric motor, and to operate in a prescribed period (Tm) longer than a control period (Tc) of said first motor control unit; wherein said mode switching determining unit is configured to permit, when switching from said first control mode to said second control mode is determined to be necessary, switching from said first control mode to said second control mode at a next operation timing, and to inhibit updating of a phase of said rectangular wave voltage by said first motor control unit until said next operation timing.
Method of treatment by electrochemical marking of large metallic surfaces in which an electrode and a buffer impregnated with etching solution is endowed movement in a longitudinal direction with rolling, with respect to the metallic surface in treatment; characterised hence, that the electrode is endowed with transverse motion combined with the longitudinal movement of the metallic surface itself or of the electrode with the impregnated buffer and is carried to cover the entire surface in treatment by more sliding passages; the transverse and longitudinal movement is obtained by the combination of two motions, an advancement (A1, Av, Ae) and return first motion (A2, Ar, Ae) indifferently belonging to the electrode or to a plate, canvas or metallic sheet in coil, and a second reciprocating motion transverse to the previous one belonging to the electrode; the two combined motions making repeated passages of the electrode on the same surface part in treatment; the shape or pattern of the electro-marking being made with a masking applied in a successively removable way to the plate, metal canvas or metallic sheet in coil.
An aptamer that binds to IL-17A and/or inhibits the binding of IL-17A and the IL-17 receptor, wherein: (a) the aptamer comprises a nucleotide sequence of SEQ ID NO:58, SEQ ID NO:59 or SEQ ID NO:60; (b) the aptamer comprises a nucleotide sequence selected from among SEQ ID NOS:3 to 5, 22 to 28, 32 to 36, 45 to 48, 50 and 51 (with the provision that the uracil may be thymine); or (c) the aptamer comprises a nucleotide sequence selected from among SEQ ID NOS:3 to 5, 22 to 28, 32 to 36, 45 to 48, 50 and 51 (with the provision that the uracil may be thymine) wherein one to five nucleotides are substituted, deleted, inserted or added, and each hydroxy group at 2'-position of ribose of the nucleotides contained in the aptamer (a) - (c) above is independently unsubstituted or substituted by an atom or a group selected from the group consisting of a hydrogen atom, a methoxy group and a fluorine atom. (a) the aptamer comprises a nucleotide sequence of SEQ ID NO:58, SEQ ID NO:59 or SEQ ID NO:60; (b) the aptamer comprises a nucleotide sequence selected from among SEQ ID NOS:3 to 5, 22 to 28, 32 to 36, 45 to 48, 50 and 51 (with the provision that the uracil may be thymine); or (c) the aptamer comprises a nucleotide sequence selected from among SEQ ID NOS:3 to 5, 22 to 28, 32 to 36, 45 to 48, 50 and 51 (with the provision that the uracil may be thymine) wherein one to five nucleotides are substituted, deleted, inserted or added, and each hydroxy group at 2'-position of ribose of the nucleotides contained in the aptamer (a) - (c) above is independently unsubstituted or substituted by an atom or a group selected from the group consisting of a hydrogen atom, a methoxy group and a fluorine atom.
A composition comprising an acid and/or anhydride grafted ethylene/alpha-olefin interpolymer that comprises the following properties: A) number of grafts per polymer chain ≥ 1.80, and B) melt viscosity (at 177°C) ≤ 50,000 mPa.s; wherein the number of grafts per polymer chain is determined according to formula A: Grafts per Chain = MAH wt% 98 100 − MAH wt% M n wherein the MAH wt% is determined in accordance with the method described in the description; wherein the Mn is determined in accordance with the GPC method described in the description; and wherein the melt viscosity is measured using a Brookfield Viscometer Model, and a Brookfield RV-DV-II-Pro viscometer spindle 31. A) number of grafts per polymer chain ≥ 1.80, and B) melt viscosity (at 177°C) ≤ 50,000 mPa.s; wherein the number of grafts per polymer chain is determined according to formula A: Grafts per Chain = MAH wt% 98 100 − MAH wt% M n wherein the MAH wt% is determined in accordance with the method described in the description; wherein the Mn is determined in accordance with the GPC method described in the description; and wherein the melt viscosity is measured using a Brookfield Viscometer Model, and a Brookfield RV-DV-II-Pro viscometer spindle 31. wherein the number of grafts per polymer chain is determined according to formula A: Grafts per Chain = MAH wt% 98 100 − MAH wt% M n wherein the MAH wt% is determined in accordance with the method described in the description; wherein the Mn is determined in accordance with the GPC method described in the description; and wherein the melt viscosity is measured using a Brookfield Viscometer Model, and a Brookfield RV-DV-II-Pro viscometer spindle 31.
A position-measuring device for measuring an absolute position with a measuring standard that has a binary code (1, 2), which has at least one position track with binary position markings, and a sensor device that scans the binary code (1, 2), wherein the sensor device is suitably designed to scan a first binary code that has a first number of code words that have the same code word length, characterized in that the binary code of the measuring standard is a binary code that forms a portion of the first binary code with a second number (m) of code words reduced compared to the first number which can be mapped onto the first binary code, wherein the second binary code is uniquely mapped onto the first binary code by means of a predefined mapping rule containing a scaling.