mhurhangee/ep-ind-claims huggingface dataset:
Cylinder lock comprising a cylinder housing consisting of a plurality of modules (1', 1", 1"', 1"") which are interconnected by means of a connecting element (8, 9, 10) and arranged one behind the other in an axial direction (x), the connecting element (8, 9, 10) being restrained, by means of positive engagement elements, in a recess, which has a base and two opposite walls, of a flange portion of the cylinder housing, which portion has two broad sides that face away from one another, the positive engagement elements each plugging into bores (11, 12) in at least one of the two walls, characterised in that the two broad sides each have a recess equipped with a connecting element (8, 9, 10).
Process for preparing amides of (meth)acrylic acid, characterized in that the anhydride of (meth)acrylic acid is reacted, with cooling, in water with a primary or secondary amine, and the amide formed is separated off by means of filtration.
Brake caliper of a disk brake, comprising a housing having a bore hole, in which an axially displaceable piston is arranged, and a shaft for actuation, which is supported so that it is rotatable and axially displaceable in the housing, and with one shaft end passes through a housing aperture, comprising two contra-rotating ramp elements (12, 13) for converting a rotational movement of the shaft into an axial displacement of the piston, one ramp element being rotationally fixed to the housing and one ramp element being rotationally fixed to the shaft, and an adjusting device having a spindle, an axial bearing being provided between the spindle and the shaft, at least one end face (35, 36) of the axial bearing comprising multiple grooves (39, 40, 41) radiating radially outwards from a center, characterized in that the axial bearing is integrally formed from a homogeneous material matrix, the grooves (39, 40, 41) having a cross section widening radially outwards.
A method for physically securing an optical substrate (102, 102A, 102B) to a base substrate (104, 104A, 104B), the method comprising: providing a steering mechanism; providing the base substrate (104, 104A, 104B) positioned relative to the steering mechanism; providing the optical substrate (102, 102A, 102B) positioned over the base substrate, the optical substrate comprising a mirror; and securing the optical substrate relative to the base substrate with an adhesive complex (108, 108A, 108B) comprising a first adhesive (302, 302B) and a second adhesive (304, 304B) having a larger coefficient of contraction than the first adhesive, the securing comprising: securing a first portion of the base substrate and a first portion of the optical substrate with the first adhesive by transitioning the first adhesive from a more flowable application state to a more rigid securing state, and securing a second portion of the base substrate and a second portion of the optical substrate with the second adhesive by transitioning the second adhesive from a more flowable application state to a more rigid securing state, wherein the second adhesive experiences a greater change in volume than the first adhesive when transitioning from the more flowable application state to the more rigid securing state. providing a steering mechanism; providing the base substrate (104, 104A, 104B) positioned relative to the steering mechanism; providing the optical substrate (102, 102A, 102B) positioned over the base substrate, the optical substrate comprising a mirror; and securing the optical substrate relative to the base substrate with an adhesive complex (108, 108A, 108B) comprising a first adhesive (302, 302B) and a second adhesive (304, 304B) having a larger coefficient of contraction than the first adhesive, the securing comprising: securing a first portion of the base substrate and a first portion of the optical substrate with the first adhesive by transitioning the first adhesive from a more flowable application state to a more rigid securing state, and securing a second portion of the base substrate and a second portion of the optical substrate with the second adhesive by transitioning the second adhesive from a more flowable application state to a more rigid securing state, wherein the second adhesive experiences a greater change in volume than the first adhesive when transitioning from the more flowable application state to the more rigid securing state. securing a first portion of the base substrate and a first portion of the optical substrate with the first adhesive by transitioning the first adhesive from a more flowable application state to a more rigid securing state, and securing a second portion of the base substrate and a second portion of the optical substrate with the second adhesive by transitioning the second adhesive from a more flowable application state to a more rigid securing state, wherein the second adhesive experiences a greater change in volume than the first adhesive when transitioning from the more flowable application state to the more rigid securing state.
Luminaire comprising at least one module with a plurality of LEDs distributed over a module surface, a plurality of LEDs being arranged in a row in a longitudinal direction of the module, and a plurality of the rows being arranged next to one another in a transverse direction of the module which is perpendicular to the longitudinal direction, and wherein the LED light comprises optics (5, 8) for focusing the light emitted by the LEDs, the optics (5, 8) comprising at least a first cylindrical lens extending in the longitudinal direction, wherein the light of at least some of the LEDs of a first one of the rows is focused into a line on a target surface by means of the first cylindrical lens, characterized in that at least 50% of the light emitted by the LEDs is in a wavelength range of less than 470nm.
Positioning device, in particular tool-positioning device, for a machining centre 1, with a first slide carrying first guide elements which are configured for active connection with first guides in order in use to guide the first slide so as to be movable in a first horizontal direction (x), wherein the first slide carries second guides which in use run in a second horizontal direction (z) transversely to the first horizontal direction (x), and with a second slide carrying second guide elements which are configured for active connection with the second guides of the first slide in order in use to guide the second slide so as to be movable in a second horizontal direction (z) on the first slide, characterised in that the second guide elements and the second guides are each arranged partly at different heights in a vertical direction (y) running perpendicularly to the first and second horizontal directions (x, z), such that the second slide is guided on the first slide at least at two separate guide points (61, 62), the spacing between which varies on a travel movement of the second slide relative to the first slide.
A method comprising: receiving a request to write data to a persistent storage device, the request comprising data; determining an affinity of the data; writing the request to a cache line of a cache, the cache comprising a plurality of buckets; associating the cache line with the affinity of the data; reporting the data as having been written to the persistent storage device; determining that data is to be evicted from the cache; generating a stream based on one or more buckets of the plurality of buckets; and writing the stream to the persistent storage device; wherein the request further comprises an LBA value, and the affinity of the data is a function of the LBA value; wherein each bucket of the plurality of buckets is associated with a range of LBA values. receiving a request to write data to a persistent storage device, the request comprising data; determining an affinity of the data; writing the request to a cache line of a cache, the cache comprising a plurality of buckets; associating the cache line with the affinity of the data; reporting the data as having been written to the persistent storage device; determining that data is to be evicted from the cache; generating a stream based on one or more buckets of the plurality of buckets; and writing the stream to the persistent storage device; wherein the request further comprises an LBA value, and the affinity of the data is a function of the LBA value; wherein each bucket of the plurality of buckets is associated with a range of LBA values.
A hybrid cell generated by hybridisation of: a first cell, wherein said first cell is a cell derived from a common myeloid progenitor cell, wherein a common myeloid progenitor cell is a progeny of a hematopoietic stem cell restricted to the myeloid lineage and capable of giving rise to either megakaryocyte/erythrocyte or granulocyte/macrophage progenitors but not lymphoid cells; a second cell derived from a common lymphoid progenitor cell; and a third cell derived from a common lymphoid progenitor cell, wherein a common lymphoid progenitor cell is a progeny of a hematopoietic stem cell restricted to the lymphoid lineage and capable of giving rise to B, T and natural killer cells but not myeloid cells, wherein said second cell and said third cell are not a myeloma cell, and wherein said second cell is preferably a cell derived from B lymphoid lineage and said third cell is preferably a cell derived from B lymphoid lineage or wherein said second cell is preferably a cell derived from T lymphoid lineage and said third cell is preferably a cell derived from T lymphoid lineage. a first cell, wherein said first cell is a cell derived from a common myeloid progenitor cell, wherein a common myeloid progenitor cell is a progeny of a hematopoietic stem cell restricted to the myeloid lineage and capable of giving rise to either megakaryocyte/erythrocyte or granulocyte/macrophage progenitors but not lymphoid cells; a second cell derived from a common lymphoid progenitor cell; and a third cell derived from a common lymphoid progenitor cell, wherein a common lymphoid progenitor cell is a progeny of a hematopoietic stem cell restricted to the lymphoid lineage and capable of giving rise to B, T and natural killer cells but not myeloid cells, wherein said second cell and said third cell are not a myeloma cell, and wherein said second cell is preferably a cell derived from B lymphoid lineage and said third cell is preferably a cell derived from B lymphoid lineage or wherein said second cell is preferably a cell derived from T lymphoid lineage and said third cell is preferably a cell derived from T lymphoid lineage.
Method to manufacture a tubular element for transferring abrasive materials such as concrete, inert materials or suchlike, wherein said tubular element comprises an internal tubular component and an external tubular component in contact with each other and coaxial to a central axis, characterized in that it comprises a first step in which said internal tubular component is made of a material comprising chromium carbide, in pure form or in the form of an alloy or a mixture thereof, said first step being achieved by means of centrifugation technology, using a substantially cylindrical mold rotating around its own axis of rotation coincident with said central axis, and by casting the material comprising chromium carbide inside said mold, and in that it comprises a second step, after said first step, in which, in contact with the external surface of said internal tubular component, said external tubular component is made of a composite material in fibers impregnated with a resin.
A protective textile sleeve (10; 810) for providing protection to an elongate member contained therein, comprising: a wall (12; 112; 212; 312; 512; 612; 712; 812) of interlaced yarn, said wall having an outermost and innermost surface (23, 21), said innermost surface being configured to bound a cavity extending between opposite open ends (19, 20); and an adhesive coating (22; 122) bonded to at least a portion of at least one of said outermost surface and said innermost surface, said adhesive coating having a first, non-adhesive state and a second, adhesive state, said second adhesive state being activated via application of a water-based liquid thereto, and in which the adhesive coating is bonded to the innermost surface adjacent and extending along the entirety of the opposite ends (19, 20) with an intermediate region extending between the opposite ends (19, 20) remaining free of said adhesive coating, wherein either said wall (12; 112; 212; 312; 512; 612; 712; 812) is circumferentially continuous or said wall (12; 112; 212; 312; 512; 612; 712; 812) is a wrappable wall having opposite edges (16, 17) extending generally parallel to a central, longitudinal axis of said cavity, said opposite edges being adapted to be wrapped in overlapping relation with one another. a wall (12; 112; 212; 312; 512; 612; 712; 812) of interlaced yarn, said wall having an outermost and innermost surface (23, 21), said innermost surface being configured to bound a cavity extending between opposite open ends (19, 20); and an adhesive coating (22; 122) bonded to at least a portion of at least one of said outermost surface and said innermost surface, said adhesive coating having a first, non-adhesive state and a second, adhesive state, said second adhesive state being activated via application of a water-based liquid thereto, and in which the adhesive coating is bonded to the innermost surface adjacent and extending along the entirety of the opposite ends (19, 20) with an intermediate region extending between the opposite ends (19, 20) remaining free of said adhesive coating, wherein either said wall (12; 112; 212; 312; 512; 612; 712; 812) is circumferentially continuous or said wall (12; 112; 212; 312; 512; 612; 712; 812) is a wrappable wall having opposite edges (16, 17) extending generally parallel to a central, longitudinal axis of said cavity, said opposite edges being adapted to be wrapped in overlapping relation with one another.
A system comprising: a casing-liner disposed within a wellbore casing disposed in a wellbore to define an annular disposal zone between the casing-liner and the wellbore casing; a first downhole separator disposed within the wellbore casing and configured to receive a production fluid from a production zone and generate a hydrocarbon rich stream and a water stream comprising a solid medium, from the production fluid; a production pump disposed within the wellbore casing and coupled to the first downhole separator and a surface unit, wherein the production pump is configured to pump the hydrocarbon rich stream from the first downhole separator to the surface unit via a channel; a second downhole separator disposed above the casing-liner within the wellbore casing and coupled to the first downhole separator and configured to receive the water stream comprising the solid medium from the first downhole separator and separate the solid medium from the water stream to generate a separated water stream, wherein the second downhole separator is configured to dispose the solid medium to the annular disposal zone; and a tube coupled to the second downhole separator and configured to dispose the separated water stream from the second downhole separator to a water disposal zone in the wellbore. a casing-liner disposed within a wellbore casing disposed in a wellbore to define an annular disposal zone between the casing-liner and the wellbore casing; a first downhole separator disposed within the wellbore casing and configured to receive a production fluid from a production zone and generate a hydrocarbon rich stream and a water stream comprising a solid medium, from the production fluid; a production pump disposed within the wellbore casing and coupled to the first downhole separator and a surface unit, wherein the production pump is configured to pump the hydrocarbon rich stream from the first downhole separator to the surface unit via a channel; a second downhole separator disposed above the casing-liner within the wellbore casing and coupled to the first downhole separator and configured to receive the water stream comprising the solid medium from the first downhole separator and separate the solid medium from the water stream to generate a separated water stream, wherein the second downhole separator is configured to dispose the solid medium to the annular disposal zone; and a tube coupled to the second downhole separator and configured to dispose the separated water stream from the second downhole separator to a water disposal zone in the wellbore.
A compound of Formula or and pharmaceutically acceptable salts, solvates or solvates of salts, thereof, wherein: Y' is independently CH2 or NH such that when Y' is NH, Z is CH2 or absent, and when Y' is CH2, Z is NH, Z is independently CH2, NH or is absent such that when Z is CH2 or absent, Y is NH and when Z is NH, Y is CH2 and Z' is independently Ar, alkyl, halogen, OR, NRR, CF3, CN, OCF3, SR or H, wherein the compound of formula or is mono, di, or tri-substituted with any above combination of Z' groups, X is N, R 2 is A or H, A is unbranched or branched linear or cyclic alkyl having 1, 2, 3, 4, 5, 6, 7 or 8 C atoms, in which one or two CH 2 groups may be replaced by an O or S atom and/or by an -NH-, -CO-, -NHCOO-, -NHCONH-. -N -,-CONH-, -NHCO- or -CH=CH- group, and in which 1-3 H atoms may be replaced by Hal, and in which one or two CH 3 groups may be replaced by OH, SH, NH 2, NH, N 2, NHCOOH, NHCONH 2 or CN, LA is unbranched or branched, linear alkyl having 1, 2, 3 or 4 C atoms, wherein 1, 2 or 3 H atoms may be replaced by Hal and Hal is F, Cl, Br or I. Y' is independently CH2 or NH such that when Y' is NH, Z is CH2 or absent, and when Y' is CH2, Z is NH, Z is independently CH2, NH or is absent such that when Z is CH2 or absent, Y is NH and when Z is NH, Y is CH2 and Z' is independently Ar, alkyl, halogen, OR, NRR, CF3, CN, OCF3, SR or H, wherein the compound of formula or is mono, di, or tri-substituted with any above combination of Z' groups, X is N, R 2 is A or H, A is unbranched or branched linear or cyclic alkyl having 1, 2, 3, 4, 5, 6, 7 or 8 C atoms, in which one or two CH 2 groups may be replaced by an O or S atom and/or by an -NH-, -CO-, -NHCOO-, -NHCONH-. -N -,-CONH-, -NHCO- or -CH=CH- group, and in which 1-3 H atoms may be replaced by Hal, and in which one or two CH 3 groups may be replaced by OH, SH, NH 2, NH, N 2, NHCOOH, NHCONH 2 or CN, LA is unbranched or branched, linear alkyl having 1, 2, 3 or 4 C atoms, wherein 1, 2 or 3 H atoms may be replaced by Hal and Hal is F, Cl, Br or I.
A mounting system for mounting or removing a turbine component having an axis to or from a turbine, the mounting system comprising: - a suspended rail structure configured to move the turbine component with the help of a traveller in a direction along the axis of the turbine component between an outside and an inside position with respect to the turbine; - a lifter configured to receive the turbine component in the outside position with the help of a support frame; and - a guide rail for guiding the lifter along a predefined path on the ground; the suspended rail structure comprises: - a first bracket (13, 18) attached to a wall of the turbine, - a beam configured as a longitudinally extending rail to support the rail structure, the beam having one end connected to the first brackets (13, 18) via a pivotable joint for a hinged suspension, - a second bracket (14, 15) attached to a wall of the turbine, and - two tie rods or two chains connected at one end to the second bracket (14, 15) and at the other end to the beam at positions longitudinally displaced to each other for suspending and holding the beam in a defined tilt angle relative to the turbine; wherein - the traveller is movable along the rail and connected to a holder (11, 12) for attaching the turbine component to the traveller; - the support frame is configured to receive the turbine component with the holder (11, 12) in the outside position and to be attached to the lifter for being movable in a vertical direction; the tilt angle of the beam is adjustable by adjusting the length of the tie rods or chains for aligning the rail structure with the moving direction along the axis of the turbine component; and wherein the holder (11, 12) comprises a belt which is form fit to a first section of the turbine component. - a suspended rail structure configured to move the turbine component with the help of a traveller in a direction along the axis of the turbine component between an outside and an inside position with respect to the turbine; - a lifter configured to receive the turbine component in the outside position with the help of a support frame; and - a guide rail for guiding the lifter along a predefined path on the ground; - a first bracket (13, 18) attached to a wall of the turbine, - a beam configured as a longitudinally extending rail to support the rail structure, the beam having one end connected to the first brackets (13, 18) via a pivotable joint for a hinged suspension, - a second bracket (14, 15) attached to a wall of the turbine, and - two tie rods or two chains connected at one end to the second bracket (14, 15) and at the other end to the beam at positions longitudinally displaced to each other for suspending and holding the beam in a defined tilt angle relative to the turbine; wherein - the traveller is movable along the rail and connected to a holder (11, 12) for attaching the turbine component to the traveller; - the support frame is configured to receive the turbine component with the holder (11, 12) in the outside position and to be attached to the lifter for being movable in a vertical direction;
Method for identifying the magnetic anisotropy of an electrical three-phase machine, comprising a rotor and a stator, wherein the three-phase machine is actuated by means of clocked terminal voltages in accordance with the method of pulse width modulation, characterized in that four voltage vectors (U1, U2, U3, U4) are set during one injection interval, which voltage vectors all have the same magnitude in a space vector representation after respective subtraction of the common mean value (Ufoc) and are respectively orthogonal or antiparallel to one another in pairs, in that a corresponding change in the current vector Δ 2 i s u is ascertained in each case in response to the four voltage vectors (U1, U2, U3, U4), and in that components of the anisotropic inductance are inferred from the respective changes in the current vectors Δ 2 i s u taking into consideration the voltage vectors (U1, U2, U3, U4).