mhurhangee/ep-ind-claims huggingface dataset:
Manual gearbox, intended to equip a vehicle and comprising primary and secondary shafts provided with pinions defining ratios, forks (Fj) provided with a tie bar (Cj) and able to be translated so as to actuate friction synchronisers associated with some of said pinions, a passage lever provided with an interlocking key comprising a passage finger able to act on said tie bars (Cj) in order to cause a selective translation of one of said forks (Fj), and a braking assembly able, in the case of translation of a fork of a forward ratio, to cause a friction of the synchroniser associated with the latter ratio in order to act on the speed of reverse pinions, one of said forks (Fj) comprising a latch mounted for rotation, characterised in that said latch is provided with a housing terminating in a stop, and in that said passage lever also comprises, in said interlocking key, a control finger comprising first and second parts and able to be housed in said housing when said control finger is translated during a phase of selection of a reverse gear, and then, when it is rotated, to push said stop with its first part in order to translate its fork between an idle position and an active position able to make said braking assembly function, while rotating said latch, by the pressing of said second part on an internal face of said housing, in order to release its first part from said stop in order to allow a return of its fork to its idle position with a view to an effective engagement of reverse gear by said passage finger.
An oil/water separator (10; 10') for removing oleaginous constituents from an oil/water mixture, comprising a top housing, a condensate line and a main filter which is designed to separate oleaginous constituents from the oil/water mixture, an oil/water mixture that is to be cleaned being feedable to the main filter from the top housing via the condensate line and, after passing through the main filter, being dischargeable from the oil/water separator (10; 10'), and the oil/water separator (10; 10') being designed for feed and discharge of these liquids according to the hydrostatic principle, the top housing being arranged above the main filter and the distance between the top housing and the main filter being at least 0.5 m such that a hydrostatic pressure of at least 0.05 bar may result at the main filter, characterised in that the condensate line is variable in length.
A method for detecting a gesture performed by a user using a wearable device comprising at least one multi-axis inertial sensor and at least one touch sensor, the wearable device worn on a finger of the user, the method comprising: determining a first orientation of the wearable device using the at least one multi-axis inertial sensor; determining a touch location of a plurality of touch locations divided along a surface of the electronic device based on a capacitance due to an adjacent finger with respect to at least one finger on which the wearable device is worn using the at least one touch sensor; determining an absolute orientation, being the orientation of the wearable device and of the at least one finger on which the wearable device is worn, by combining the determined touch location, the first orientation of the at least one multi-axis inertial sensor, and a relative orientation between the determined touch location and the at least one multi-axis inertial sensor; and executing at least one function corresponding to at least one user gesture based on the determined absolute orientation of the wearable device. determining a first orientation of the wearable device using the at least one multi-axis inertial sensor; determining a touch location of a plurality of touch locations divided along a surface of the electronic device based on a capacitance due to an adjacent finger with respect to at least one finger on which the wearable device is worn using the at least one touch sensor; determining an absolute orientation, being the orientation of the wearable device and of the at least one finger on which the wearable device is worn, by combining the determined touch location, the first orientation of the at least one multi-axis inertial sensor, and a relative orientation between the determined touch location and the at least one multi-axis inertial sensor; and executing at least one function corresponding to at least one user gesture based on the determined absolute orientation of the wearable device.
Sensor device having an incremental sensor unit (40, 40', 40") for a shaft rotatable about a rotational axis, in particular for a steering shaft of a motor vehicle, wherein the incremental sensor unit (40, 40', 40") is designed for acquiring at least one defined rotational angle position (δ def) of the shaft and comprises a transmitting element (41, 41") and a housing-fixed receiving element, wherein a signal (M Ink_planar) emitted by the transmitting element (41, 41") and transmitted along a signal path is receivable by the receiving element, wherein it is recognizable on the basis of the signal (M Ink_planar) received by the receiving element whether the shaft is located in the defined rotational angle position (δ def) or not, and wherein the incremental sensor unit (40, 40', 40") is designed to generate a signal pulse upon reaching the defined rotational angle position (δ def) of the shaft, and wherein the transmitting element (41, 41") is arranged fixed on the housing, wherein a change of the signal (M Ink_planar) received by the receiving element can be caused by a rotational movement of the shaft, wherein the incremental sensor unit (40, 40', 40") comprises a shielding element (70, 70'), which can be coupled in a rotationally-fixed manner to the shaft and extends outward in the radial direction, wherein the shielding element (70, 70') is designed to influence the signal (M Ink_planar) transmitted from the transmitting element (41, 41") to the receiving element as a function of a rotational angle position (δ) of the shaft so that a change of the signal (M Ink_planar) received by the receiving element can be caused by a rotational movement of the shaft, characterized in that the shielding element (70, 70'), upon reaching or outside the defined rotational angle position (δ def) of the shaft, extends into the signal path between the transmitting element (41, 41") of the incremental sensor unit (40, 40', 40") and the receiving element of the incremental sensor unit (40, 40', 40") and interrupts the signal path between the transmitting element (41, 41") and the receiving element, wherein the shielding element (70, 70') can be coupled to the shaft at a position in the circumferential direction associated with the defined rotational angle position (δ def).
A locking screw and plate system comprising a screw configured to be inserted into an aperture of a plate having: a head; a neck extending distally from the head and having a diameter; a shoulder extending distally from the neck and having a major diameter; and a shaft extending distally from the shoulder and having a thread, a major diameter and a minor diameter, wherein the major diameter of the shoulder is larger than the diameter of the neck and larger than the minor diameter of the shaft, and wherein the diameter of the neck is less than or generally equal to the major diameter of the shaft, and characterised by the plate having an aperture configured to receive the shoulder of the screw with a snap fit. a head; a neck extending distally from the head and having a diameter; a shoulder extending distally from the neck and having a major diameter; and a shaft extending distally from the shoulder and having a thread, a major diameter and a minor diameter, wherein the major diameter of the shoulder is larger than the diameter of the neck and larger than the minor diameter of the shaft, and wherein the diameter of the neck is less than or generally equal to the major diameter of the shaft, and characterised by the plate having an aperture configured to receive the shoulder of the screw with a snap fit.
Method for adjusting the temperature of medical liquids, comprising: Providing an incoming volumetric flow (Fi) from a fluid supply; Separating the incoming volumetric flow (Fi) into two partial volumetric flows (F1, F2); Adjusting the fluid temperature (T1, T2) of each of the partial volumetric flows (F1, F2) to substantially constant target temperatures (Tt1, Tt2) of the partial volumetric flows (F1, F2); and volumetric flow controlled merging of the partial volumetric flows (F1, F2) to an output volumetric flow (Fo). Providing an incoming volumetric flow (Fi) from a fluid supply; Separating the incoming volumetric flow (Fi) into two partial volumetric flows (F1, F2); Adjusting the fluid temperature (T1, T2) of each of the partial volumetric flows (F1, F2) to substantially constant target temperatures (Tt1, Tt2) of the partial volumetric flows (F1, F2); and volumetric flow controlled merging of the partial volumetric flows (F1, F2) to an output volumetric flow (Fo).
An antenna, comprising: a radiation waveguide part including two sheets of metal plates (15, 16) facing each other and configured to outwardly radiate a radio wave from a plurality of slots formed in one of the metal plates (15, 16), wherein the slots are arranged at fixed intervals in a longitudinal direction of the slots and in a lateral direction of the slots, respectively; and a plurality of stubs arranged to extend inward of the radiation waveguide part from a face of the radiation waveguide part where the slots are formed, and configured to change a transmission mode of the radio wave within the radiation waveguide part, wherein each stub is attached on either one of sides of slots in the lateral direction, for every slot, the adjacent stubs in the lateral direction being disposed alternately between the slots adjacent to each other, wherein the stubs have a circular cylindrical shape, and wherein an interval between a slot and a stub is changed depending on the position of the stub on the radiation waveguide part, to change the strength of the radio wave to be radiated from the antenna. a radiation waveguide part including two sheets of metal plates (15, 16) facing each other and configured to outwardly radiate a radio wave from a plurality of slots formed in one of the metal plates (15, 16), wherein the slots are arranged at fixed intervals in a longitudinal direction of the slots and in a lateral direction of the slots, respectively; and a plurality of stubs arranged to extend inward of the radiation waveguide part from a face of the radiation waveguide part where the slots are formed, and configured to change a transmission mode of the radio wave within the radiation waveguide part, wherein each stub is attached on either one of sides of slots in the lateral direction, for every slot, the adjacent stubs in the lateral direction being disposed alternately between the slots adjacent to each other, wherein the stubs have a circular cylindrical shape, and wherein an interval between a slot and a stub is changed depending on the position of the stub on the radiation waveguide part, to change the strength of the radio wave to be radiated from the antenna.
A process for the preparation of the polymorph form B of -L-erythro-tetrahydrobiopterin dihydrochloride characterised by the X-ray powder diffraction pattern of Figure 2 with characteristic peaks expressed in d-values (Å) at 8.7 (vs), 5.63 (m), 4.76 (m), 4.40 (m), 4.00 (s), 3.23 (s), 3.11 (vs), preferably 8.7 (vs), 6.9 (w), 5.90 (vw), 5.63 (m), 5.07 (m), 4.76 (m), 4.40 (m), 4.15 (w), 4.00 (s), 3.95 (m), 3.52 (m), 3.44 (w), 3.32 (m), 3.23 (s), 3.17 (w), 3.11 (vs), 3.06 (w), 2.99 (w), 2.96 (w), 2.94 (m), 2.87 (w), 2.84 (s), 2.82 (m), 2.69 (w), 2.59 (w), 2.44 (w), comprising preparing a suspension of particles of a solid form other than polymorph form B of -L-erythro-tetrahydrobiopterin dihydrochloride in a solvent that scarcely dissolves said -L-erythro-tetrahydrobiopterin dihydrochloride at room temperature, stirring the suspension at ambient temperatures for a time sufficient to produce polymorph form B, thereafter isolating polymorph form B and removing the solvent from the isolated polymorph form B; wherein the solvent that scarcely dissolves said -L-erythro-tetrahydrobiopterin dihydrochloride at room temperature is selected from methanol, ethanol, isopropanol, other C3- and C4-alcohols, acetic acid, acetonitrile, tetrahydrofurane, methyl-t-butyl ether, 1,4-dioxane, ethyl acetate, isopropyl acetate, other C3-C6-acetates, methyl ethyl ketone and methyl-C3-C5-alkyl-ketones.
Aspiration catheter for aspirating material from blood vessels, comprising a tubular catheter wall with a first distal opening and a first proximal opening connected by a first lumen; a tubular guide sleeve with a second distal opening and a second proximal opening which are connected by a second lumen and wherein the tubular guide sleeve is arranged inside the first lumen, and wherein the second proximal opening extends laterally through the tubular catheter wall, and the second lumen is coaxial with the first lumen, and wherein the tubular guide sleeve is connected to the tubular catheter wall in a region of the first distal opening and in a region of the second proximal opening, the tubular guide sleeve and the tubular catheter wall being bonded to each other by a material bond exclusively in said areas, so that over a large part of the entire length of the aspiration catheter, during which the guide sleeve runs in the catheter wall, the guide sleeve is loosely arranged within the first lumen, characterized in that the tubular guide sleeve protrudes from the first lumen at the first distal opening. a tubular catheter wall with a first distal opening and a first proximal opening connected by a first lumen; a tubular guide sleeve with a second distal opening and a second proximal opening which are connected by a second lumen and wherein the tubular guide sleeve is arranged inside the first lumen, and wherein the second proximal opening extends laterally through the tubular catheter wall, and the second lumen is coaxial with the first lumen, and wherein the tubular guide sleeve is connected to the tubular catheter wall in a region of the first distal opening and in a region of the second proximal opening, the tubular guide sleeve and the tubular catheter wall being bonded to each other by a material bond exclusively in said areas, so that over a large part of the entire length of the aspiration catheter, during which the guide sleeve runs in the catheter wall, the guide sleeve is loosely arranged within the first lumen, characterized in that the tubular guide sleeve protrudes from the first lumen at the first distal opening.
A computer program product, which when loaded or operating on a computer, being adapted to perform a method for determination of an optimized position and orientation of placement, and optionally also the shape of a new obstacle in an agricultural field; said method comprising the steps: a) providing information relating to: i) coordinates relating to the boundaries of said agricultural field; and ii) coordinates relating to the boundaries of the ground shape of said new obstacle to be laid out in said field; b) providing information relating to one or more capacity parameters relating to a specific working vehicle intended for working said field; c) optionally providing information relating to the direct cost of the placing said new obstacle, as dependent on the specific position of placement thereof; d) performing a calculation of an optimized position and orientation of placement of said new obstacle; wherein said optimized position and orientation of placement, and optionally also the shape of said new obstacle, is being calculated on the basis of said information retrieved in step a) and step b) and step c). a) providing information relating to: i) coordinates relating to the boundaries of said agricultural field; and ii) coordinates relating to the boundaries of the ground shape of said new obstacle to be laid out in said field; i) coordinates relating to the boundaries of said agricultural field; and ii) coordinates relating to the boundaries of the ground shape of said new obstacle to be laid out in said field; b) providing information relating to one or more capacity parameters relating to a specific working vehicle intended for working said field; c) optionally providing information relating to the direct cost of the placing said new obstacle, as dependent on the specific position of placement thereof; d) performing a calculation of an optimized position and orientation of placement of said new obstacle; wherein said optimized position and orientation of placement, and optionally also the shape of said new obstacle, is being calculated on the basis of said information retrieved in step a) and step b) and step c).
A fire protection glazing for preventing fire and smoke from getting outside in case of fire, whereby the extension of the fire to adjacent buildings will be prevented, comprising one or more fire protection panes (2, 3) and a frame construction which surrounds the fire protections panes (2, 3) and comprises wooden profiles, characterized in that the fire protection panes (2, 3) are arranged horizontally and/or in an inclined position and the frame construction comprises supporting profiles made of wood that are arranged outside on the side facing away from the fire and thus on the upper side of the fire protection glazing and that receive the weight of the fire protection panes (2, 3) and holding profiles made of metal that are connected with the said supporting profiles, are spaced apart from the supporting profiles by means of cooling elements (6, 7) and are arranged inside on the side facing the fire and thus on the bottom side of the fire protection glazing, and that form supporting surfaces (9, 10) for the fire protection panes (2, 3).
A method for manufacturing a planarized etch-stop layer, ESL, suitable for a hydrofluoric acid, HF, vapor phase etching process, the method comprising - providing a first planarized layer on top of a surface of a substrate, the first planarized layer comprising a patterned and structured metallic material and a filling material; and - depositing on top of the first planarized layer a planarized ESL of an ESL material with low HF etch rate; - wherein the planarized ESL has a thickness of less than 150nm, in particular of less than 100nm; - planarization of the first planarized layer is realized by performing one of the following: chemical-mechanical planarization, lift-off processing, non-selective plasma etching; and - the method is part of a CMOS-compatible fabrication process. - providing a first planarized layer on top of a surface of a substrate, the first planarized layer comprising a patterned and structured metallic material and a filling material; and - depositing on top of the first planarized layer a planarized ESL of an ESL material with low HF etch rate; - wherein the planarized ESL has a thickness of less than 150nm, in particular of less than 100nm; - planarization of the first planarized layer is realized by performing one of the following: chemical-mechanical planarization, lift-off processing, non-selective plasma etching; and - the method is part of a CMOS-compatible fabrication process.
An optical sensor comprising a light transmitter for transmitting transmitted light into a detection zone; a first and a second light receiver (PD1, PD2) which are configured for receiving received light from the detection zone which is reflected in a reflective or diffuse manner by an object to be detected and for generating received signals from the received light; and an evaluation unit for generating a detection signal from the received signals, wherein the light receivers (PD1, PD2) are arranged such that each light receiver (PD1, PD2) receives a portion of the received light; and wherein each light receiver (PD1, PD2) has an effective reception surface, with the effective reception surface of the second light receiver being smaller than the effective reception surface of the first light receiver such that the ratio between the received signal generated by the first light receiver and the received signal generated by the second light receiver depends on the sensing distance of the detected object, characterized in that a beam splitter is arranged in the optical path upstream of the light receivers (PD1, PD2) and deflects a portion of the received light to the first light receiver and another portion of the received light to the second light receiver.
A double spiro structure compound represented by the following Chemical Formula 1-1: wherein, in Chemical Formula 1-1, L1 is a direct bond; a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; and wherein Y1 is selected from the group consisting of a substituted or unsubstituted amine group; a substituted or unsubstituted silyl group; a substituted or unsubstituted aryl group; and a substituted or unsubstituted heteroaryl group. L1 is a direct bond; a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; and wherein Y1 is selected from the group consisting of a substituted or unsubstituted amine group; a substituted or unsubstituted silyl group; a substituted or unsubstituted aryl group; and a substituted or unsubstituted heteroaryl group.
An apparatus for separating gas and liquid comprising: a housing; a rotating shaft provided inside the housing; a drive unit configured to rotate the rotating shaft; a rotating cone mounted at the rotating shaft to rotate about the rotating shaft and having a diameter decreasing from an upper end to a lower end thereof; and a fixed cone disposed in the housing to be spaced apart from the rotating cone and having a diameter decreasing from an upper end to a lower end thereof, wherein the fixed cone comprises at least two first unit members, wherein the first unit members are in a shape in which the fixed cone is divided into the number of n, where n is an integer greater than or equal to 2, in a circumferential direction of the rotating shaft, wherein the fixed cone is formed by coupling at least two first unit members in a circumferential direction of the rotating shaft, wherein each of the first unit members is detachably mounted at an inner wall of the housing. wherein the two adjacent first unit members are separably coupled to each other, and wherein the fixed cone is formed by coupling lateral ends of the two adjacent first unit members so that at least portions of the lateral ends of the two adjacent first unit members overlap. a housing; a rotating shaft provided inside the housing; a drive unit configured to rotate the rotating shaft; a rotating cone mounted at the rotating shaft to rotate about the rotating shaft and having a diameter decreasing from an upper end to a lower end thereof; and a fixed cone disposed in the housing to be spaced apart from the rotating cone and having a diameter decreasing from an upper end to a lower end thereof, wherein the fixed cone comprises at least two first unit members, wherein the first unit members are in a shape in which the fixed cone is divided into the number of n, where n is an integer greater than or equal to 2, in a circumferential direction of the rotating shaft, wherein the fixed cone is formed by coupling at least two first unit members in a circumferential direction of the rotating shaft, wherein each of the first unit members is detachably mounted at an inner wall of the housing. wherein the two adjacent first unit members are separably coupled to each other, and wherein the fixed cone is formed by coupling lateral ends of the two adjacent first unit members so that at least portions of the lateral ends of the two adjacent first unit members overlap.