mhurhangee/ep-ind-claims huggingface dataset:
Groove follower for cooperating with a shift groove of a shift drum of a multi-step sequential transmission for a motor vehicle, comprising: - a groove follower body, comprising at least one contact surface for contacting a lateral face of the shift groove of the shift drum, characterised in that at least part of the at least one contact surface is formed as part of an outer surface of a three-dimensional helix with a helix diameter and a helix pitch. - a groove follower body, comprising at least one contact surface for contacting a lateral face of the shift groove of the shift drum, characterised in that at least part of the at least one contact surface is formed as part of an outer surface of a three-dimensional helix with a helix diameter and a helix pitch.
A pharmaceutical composition, characterised in that the composition comprises a pharmaceutical carrier consisting of sesame oil and beeswax as well as oryzanol and berberine hydrochloride as active ingredients; the oryzanol is present in an amount of 1-5% by weight, the berberine hydrochloride is present in an amount of 5-50% by weight, the beeswax is present in an amount of 1-20% by weight, and the sesame oil is present in an amount of 40-85% by weight, relative to the total weight of the pharmaceutical composition.
An introducer sheath for endoluminally delivering surgical implements to a treatment site, said introducer sheath comprising: a tubular member having generally opposite first and second ends, the tubular member defining a longitudinally extending lumen, the tubular member having a wall and a reinforcement member for reinforcing the wall, characterized in that the wall of the tubular member comprises a plurality of layers and the reinforcement member is disposed between the plurality of layers of the wall of the tubular member; and the reinforcement member is separable from the wall and removable in-situ through one of the first and second ends of the tubular member, wherein the reinforcement member extends along one of a helical and a sinusoidal pattern and wherein the wall remains intact upon separation of the reinforcement member therefrom. a tubular member having generally opposite first and second ends, the tubular member defining a longitudinally extending lumen, the tubular member having a wall and a reinforcement member for reinforcing the wall, characterized in that the wall of the tubular member comprises a plurality of layers and the reinforcement member is disposed between the plurality of layers of the wall of the tubular member; and the reinforcement member is separable from the wall and removable in-situ through one of the first and second ends of the tubular member, wherein the reinforcement member extends along one of a helical and a sinusoidal pattern and wherein the wall remains intact upon separation of the reinforcement member therefrom.
Air filter element, in particular round filter element, for being used in an intake section of an internal combustion engine, having an annularly closed filter medium body designed as folded filter and the wall of which can be flowed through in the radial direction by the fluid to be cleaned relative to the longitudinal axis of the filter medium body, wherein the filter medium body features a longitudinally extended cross-sectional shape with two mutually opposite narrow sides and two mutually opposite long sides connecting the narrow sides, wherein the cross-sectional area of the filter medium body tapers from one front face to the opposite front face and the filter medium body features a radially inwardly directed constriction in the region of the tapered front face on each of its two long sides, wherein the two long sides of the filter medium body are designed without or at least approximately without radial constriction in the region of the opposite, larger front face, characterized in that the filter medium body features an oval, ellipsoid cross-sectional shape similar to a flattened circle, wherein the long sides feature a smaller curvature than the narrow sides.
A process for building tires for vehicle wheels comprising the step of: - assembling components of elastomeric material on a forming support (12, 12', 12''), in which at least one of said components of elastomeric material is manufactured by the steps of: i) dispensing a continuous elongated element of elastomeric material; ii) applying the continuous elongated element in the form of coils disposed in side by side relationship or at least partly superposed, wound up on the forming support (12, 12', 12'') so as to form said at least one component of elastomeric material of the tire; iii) exerting a first pressure (P 1) on a central region of a portion of the continuous elongated element, after laying of same onto the forming support (12, 12', 12'') by means of an applicator roller or other applicator member acting in thrust relationship towards the forming support; iv) exerting a second pressure (P 2) on side regions of said portion of the continuous elongated element applied onto the forming support (12, 12', 12''); wherein step iv) follows step iii). - assembling components of elastomeric material on a forming support (12, 12', 12''), in which at least one of said components of elastomeric material is manufactured by the steps of: i) dispensing a continuous elongated element of elastomeric material; ii) applying the continuous elongated element in the form of coils disposed in side by side relationship or at least partly superposed, wound up on the forming support (12, 12', 12'') so as to form said at least one component of elastomeric material of the tire; iii) exerting a first pressure (P 1) on a central region of a portion of the continuous elongated element, after laying of same onto the forming support (12, 12', 12'') by means of an applicator roller or other applicator member acting in thrust relationship towards the forming support; iv) exerting a second pressure (P 2) on side regions of said portion of the continuous elongated element applied onto the forming support (12, 12', 12''); wherein step iv) follows step iii). i) dispensing a continuous elongated element of elastomeric material; ii) applying the continuous elongated element in the form of coils disposed in side by side relationship or at least partly superposed, wound up on the forming support (12, 12', 12'') so as to form said at least one component of elastomeric material of the tire; iii) exerting a first pressure (P 1) on a central region of a portion of the continuous elongated element, after laying of same onto the forming support (12, 12', 12'') by means of an applicator roller or other applicator member acting in thrust relationship towards the forming support; iv) exerting a second pressure (P 2) on side regions of said portion of the continuous elongated element applied onto the forming support (12, 12', 12'');
Extractor hood, having a fan for drawing air into the extractor hood and at least one filter element for filtering out odorous substances from the air, characterised in that the filter element comprises an odour filter, wherein depressions (223, 224) are provided in the entry side of the filter element, which are formed by the odour filter and extend at least over half of the height of the filter element, that the filter element is arranged downstream of the fan in the main flow direction of the air, that the odour filter is folded or corrugated and the odour filter comprises a filter material layer which is covered with a coating layer on each of the opposite surfaces.
A washing device comprising at least one washing compartment adapted to receive at least one item for washing, comprising: - at least one electrolysis unit for obtaining acidic water and basic water by electrolyzing the water received from at least one water source; - at least one measurement unit for measuring at least one parameter of water which is transferred to the electrolysis unit and/or acidic water and/or basic water obtained at the electrolysis unit; - at least one control unit for controlling at least one parameter of an electrolysis process, which is performed in the electrolysis unit, based on an information received from the measurement unit, the control unit being in connection with the measurement unit; and - at least a first heating element for adjusting a temperature of water transferred to the electrolysis unit, wherein operation of the first heating element is controlled by the control unit characterized in that at least one parameter of an electrolysis process controlled by the control unit is a current value supplied to the electrolysis unit or a voltage level supplied to the first heating element. - at least one electrolysis unit for obtaining acidic water and basic water by electrolyzing the water received from at least one water source; - at least one measurement unit for measuring at least one parameter of water which is transferred to the electrolysis unit and/or acidic water and/or basic water obtained at the electrolysis unit; - at least one control unit for controlling at least one parameter of an electrolysis process, which is performed in the electrolysis unit, based on an information received from the measurement unit, the control unit being in connection with the measurement unit; and - at least a first heating element for adjusting a temperature of water transferred to the electrolysis unit, wherein operation of the first heating element is controlled by the control unit
A refrigerator, comprising: a main body having a storage compartment; a door to open or close the storage compartment; and a dispenser provided on the door and configured to supply water to an outside of the main body, wherein the door includes: a door plate; characterised in that the door further includes: a door cap coupled to a lower end portion of the door plate and having a water collecting part to collect residual water of the dispenser. a main body having a storage compartment; a door to open or close the storage compartment; and a dispenser provided on the door and configured to supply water to an outside of the main body, wherein the door includes: a door plate; characterised in that the door further includes: a door cap coupled to a lower end portion of the door plate and having a water collecting part to collect residual water of the dispenser. a door plate; characterised in that the door further includes: a door cap coupled to a lower end portion of the door plate and having a water collecting part to collect residual water of the dispenser.
A method of reducing entrained and dissolved gases from a well fluid comprising: flowing a well fluid into a process tank; exerting a centrifugal force on the well fluid; wherein a mechanical degasser coupled to the process tank is configured to exert the centrifugal force on the well fluid; and generating bubbles into the well fluid proximate an intake of the mechanical degasser, wherein generating bubbles in the well fluid comprises injecting gas into the well fluid, the gas injected into the well fluid comprising oxygen. flowing a well fluid into a process tank; exerting a centrifugal force on the well fluid; wherein a mechanical degasser coupled to the process tank is configured to exert the centrifugal force on the well fluid; and generating bubbles into the well fluid proximate an intake of the mechanical degasser,
A system (100, 200, 300, 400) for delivering an expandable implant into the vasculature of a patient, comprising: an elongated core element (102, 202, 302, 404) having a proximal end (108, 206) accessible exterior to the patient and a distal end (106, 204) including a solid wire and at least one feature (122, 216, 214, 301, 403) in proximity to the solid wire for engaging a proximal portion of the implant in a collapsed state; an expansion limiter (104, 222, 402) having an inner diameter and a length sufficient to cover the proximal portion of the implant and to retain the proximal portion in the collapsed state; and at least one elongated member (144, 146, 406) having a distal end connected to the expansion limiter (104, 222, 402) and a proximal end accessible exterior to the patient to enable proximal movement of the expansion limiter to release the implant, wherein the elongated member (144, 146, 406) is a filament; and a delivery catheter having an inner diameter sufficiently large to accommodate the implant in the collapsed state and the expansion limiter (104, 222, 402). an elongated core element (102, 202, 302, 404) having a proximal end (108, 206) accessible exterior to the patient and a distal end (106, 204) including a solid wire and at least one feature (122, 216, 214, 301, 403) in proximity to the solid wire for engaging a proximal portion of the implant in a collapsed state; an expansion limiter (104, 222, 402) having an inner diameter and a length sufficient to cover the proximal portion of the implant and to retain the proximal portion in the collapsed state; and at least one elongated member (144, 146, 406) having a distal end connected to the expansion limiter (104, 222, 402) and a proximal end accessible exterior to the patient to enable proximal movement of the expansion limiter to release the implant, wherein the elongated member (144, 146, 406) is a filament; and a delivery catheter having an inner diameter sufficiently large to accommodate the implant in the collapsed state and the expansion limiter (104, 222, 402).
A method for transmitting an uplink signal by a device in a wireless communication system, the method comprising: receiving a control channel signal including a resource allocation, RA, field; and transmitting the uplink signal according to the control channel signal, characterized in that a size of the RA field is represented by the following expression: MAX (RASizeA, RASizeB), wherein MAX (x, y) is a maximum value in x and y, wherein RASizeA is a first number of bits required for representing a resource indication value, RIV, corresponding to a starting resource block, RB, and a length of contiguously allocated RBs within a given uplink bandwidth, wherein RASizeB is a second number of bits required for representing a combinatorial index r corresponding to 4 indexes, and the 4 indexes are used to indicate a start resource block group, RBG, index and an end RBG index of a first RB set and a start RBG index and an end RBG index of a second RB set within the given uplink bandwidth, and wherein a value of P is given by the following table: N RB UL Size of UL RBG ≤10 1 11 - 26 2 27 - 63 3 64 - 110 4 where the size of UL RBG is a number of contiguous RBs. receiving a control channel signal including a resource allocation, RA, field; and transmitting the uplink signal according to the control channel signal, characterized in that a size of the RA field is represented by the following expression: MAX (RASizeA, RASizeB), wherein MAX (x, y) is a maximum value in x and y, wherein RASizeA is a first number of bits required for representing a resource indication value, RIV, corresponding to a starting resource block, RB, and a length of contiguously allocated RBs within a given uplink bandwidth, wherein RASizeB is a second number of bits required for representing a combinatorial index r corresponding to 4 indexes, and the 4 indexes are used to indicate a start resource block group, RBG, index and an end RBG index of a first RB set and a start RBG index and an end RBG index of a second RB set within the given uplink bandwidth, and wherein a value of P is given by the following table: N RB UL Size of UL RBG ≤10 1 11 - 26 2 27 - 63 3 64 - 110 4 where the size of UL RBG is a number of contiguous RBs. MAX (RASizeA, RASizeB), wherein MAX (x, y) is a maximum value in x and y, wherein RASizeA is a first number of bits required for representing a resource indication value, RIV, corresponding to a starting resource block, RB, and a length of contiguously allocated RBs within a given uplink bandwidth, wherein RASizeB is a second number of bits required for representing a combinatorial index r corresponding to 4 indexes, and the 4 indexes are used to indicate a start resource block group, RBG, index and an end RBG index of a first RB set and a start RBG index and an end RBG index of a second RB set within the given uplink bandwidth, and wherein a value of P is given by the following table: N RB UL Size of UL RBG ≤10 1 11 - 26 2 27 - 63 3 64 - 110 4 where the size of UL RBG is a number of contiguous RBs.
A method for evaluating print head nozzle condition of a plurality of nozzle columns, wherein each of the plurality of nozzle columns comprises a respective set of nozzles, the method characterized by comprising: activating, by a timing circuit coupled to each of the plurality of nozzle columns, a plurality of drive bubble detect modules at a first predetermined time instant and a second predetermined time instant, wherein each of the plurality of drive bubble detect modules is coupled to a corresponding nozzle column from among the plurality of nozzle columns; for each of the plurality of nozzle columns, registering by the corresponding drive bubble detect module, test results for a nozzle of the nozzle column, wherein the test results are obtained based on impedances measured across the nozzle at the first predetermined time instant and the second predetermined time instant; and evaluating the print head nozzle condition of the nozzle based on the test results. activating, by a timing circuit coupled to each of the plurality of nozzle columns, a plurality of drive bubble detect modules at a first predetermined time instant and a second predetermined time instant, wherein each of the plurality of drive bubble detect modules is coupled to a corresponding nozzle column from among the plurality of nozzle columns; for each of the plurality of nozzle columns, registering by the corresponding drive bubble detect module, test results for a nozzle of the nozzle column, wherein the test results are obtained based on impedances measured across the nozzle at the first predetermined time instant and the second predetermined time instant; and evaluating the print head nozzle condition of the nozzle based on the test results.
An apparatus for forming a material layer onto a form tool, comprising: at least one nosepiece configured to laterally sweep a ply carrier onto a form tool contour; a pair of tension arms configured to support opposing lateral sides of a ply carrier having a material layer mounted to a lower surface thereof; one or more actuators (406, 410) configured to position the tension arms during forming of the ply carrier to the form tool contour; and the one or more actuators (406, 410) being configured to sense and control lateral tension in the ply carrier during forming of the ply carrier to the form tool contour. at least one nosepiece configured to laterally sweep a ply carrier onto a form tool contour; a pair of tension arms configured to support opposing lateral sides of a ply carrier having a material layer mounted to a lower surface thereof; one or more actuators (406, 410) configured to position the tension arms during forming of the ply carrier to the form tool contour; and the one or more actuators (406, 410) being configured to sense and control lateral tension in the ply carrier during forming of the ply carrier to the form tool contour.
A method of continuous production of acidified cheese, the method comprising - receiving a first stream of UF retentate and/or mix produced from milk protein, vegetable- and/or animal fat and water, - feeding the first stream to a mixer, - adding NaCl and GDL to the first stream in the mixer, - mixing the first stream with the added NaCl and GDL to obtain a mixed stream, - feeding the mixed stream into a tank, - recirculating the mixed stream from the tank through the mixer, - determining the mass of the mixed stream in the tank, - extracting a second stream of the mixed stream from the tank so as to keep the mass of the mixed stream in the tank within predetermined limits, - adding rennet to the second stream, and - filling containers with the second stream with added rennet. - receiving a first stream of UF retentate and/or mix produced from milk protein, vegetable- and/or animal fat and water, - feeding the first stream to a mixer, - adding NaCl and GDL to the first stream in the mixer, - mixing the first stream with the added NaCl and GDL to obtain a mixed stream, - feeding the mixed stream into a tank, - recirculating the mixed stream from the tank through the mixer, - determining the mass of the mixed stream in the tank, - extracting a second stream of the mixed stream from the tank so as to keep the mass of the mixed stream in the tank within predetermined limits, - adding rennet to the second stream, and - filling containers with the second stream with added rennet.
A control method performed in a microgrid comprising: at least one electrical power source (2; 3) configured for injecting electrical power into the microgrid; a first point of common coupling, PCC, configured for allowing a first power flow between the microgrid and a first power distribution grid; and a second PCC configured for allowing a second power flow between the microgrid and a second power distribution grid; the method being characterized by: obtaining information about a change in the first power flow; and controlling the second power flow based on the obtained information. at least one electrical power source (2; 3) configured for injecting electrical power into the microgrid; a first point of common coupling, PCC, configured for allowing a first power flow between the microgrid and a first power distribution grid; and a second PCC configured for allowing a second power flow between the microgrid and a second power distribution grid; the method being characterized by: obtaining information about a change in the first power flow; and controlling the second power flow based on the obtained information. obtaining information about a change in the first power flow; and controlling the second power flow based on the obtained information.