mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for measuring a measurement variable, having - a first inductance (LT), - a measuring inductance (LS) which is designed to sense the measurement variable and is coupled to the first inductance (LT), - a capacitance (CT) which is connected to the first inductance (LT) to form a parallel resonant circuit (P), wherein the first inductance (LT) and the capacitance (CT) each have a predefined tolerance and therefore have a maximum expected deviation from the respective nominal value, - an excitation circuit (V_St) which is designed to excite the parallel resonant circuit (P) in an oscillating manner at an excitation frequency, and - a measuring circuit (MS) which is connected at least to the measuring inductance (LS) for measuring a value indicating the measurement variable, characterized in that the parallel resonant circuit (P) has an optimum Q factor which is obtained by maximizing a value of Vt ∗ Vt / V0, - wherein Vt denotes a ratio of the coil current and supply line current in the case of the maximum expected deviation of the capacitance (CT) and of the first inductance (LT) from their respective nominal values at the resonant frequency of the parallel resonant circuit (P), and - wherein V0 denotes a ratio of the coil current and supply line current in the case of respective values of the capacitance (CT) and first inductance (LT) at the actually given resonant frequency of the parallel resonant circuit (P). - a first inductance (LT), - a measuring inductance (LS) which is designed to sense the measurement variable and is coupled to the first inductance (LT), - a capacitance (CT) which is connected to the first inductance (LT) to form a parallel resonant circuit (P), wherein the first inductance (LT) and the capacitance (CT) each have a predefined tolerance and therefore have a maximum expected deviation from the respective nominal value, - an excitation circuit (V_St) which is designed to excite the parallel resonant circuit (P) in an oscillating manner at an excitation frequency, and - a measuring circuit (MS) which is connected at least to the measuring inductance (LS) for measuring a value indicating the measurement variable, characterized in that the parallel resonant circuit (P) has an optimum Q factor which is obtained by maximizing a value of Vt ∗ Vt / V0, - wherein Vt denotes a ratio of the coil current and supply line current in the case of the maximum expected deviation of the capacitance (CT) and of the first inductance (LT) from their respective nominal values at the resonant frequency of the parallel resonant circuit (P), and - wherein V0 denotes a ratio of the coil current and supply line current in the case of respective values of the capacitance (CT) and first inductance (LT) at the actually given resonant frequency of the parallel resonant circuit (P).
An inner diffuser case for a gas turbine engine , the inner diffuser case comprising: a pre-diffuser having a plurality of outlets defined by an annular outer wall and an annular inner wall and a plurality of struts disposed between the annular outer wall and the annular inner wall , each of the plurality of struts having an aperture extending therethrough; a cone having a downstream end coupled to the pre-diffuser downstream of, and proximate to, the apertures ; a skirt having a forward end coupled to the pre-diffuser downstream of, and proximate to, the apertures , the forward end of the skirt being axially aligned with the downstream end of the cone ; wherein each aperture penetrates through both the annular outer wall and the annular inner wall ; and wherein the plurality of outlets are downstream of each aperture and offset axially downstream from the forward end of the skirt and the downstream end of the cone . a pre-diffuser having a plurality of outlets defined by an annular outer wall and an annular inner wall and a plurality of struts disposed between the annular outer wall and the annular inner wall , each of the plurality of struts having an aperture extending therethrough; a cone having a downstream end coupled to the pre-diffuser downstream of, and proximate to, the apertures ; a skirt having a forward end coupled to the pre-diffuser downstream of, and proximate to, the apertures , the forward end of the skirt being axially aligned with the downstream end of the cone ; wherein each aperture penetrates through both the annular outer wall and the annular inner wall ; and wherein the plurality of outlets are downstream of each aperture and offset axially downstream from the forward end of the skirt and the downstream end of the cone .
An automotive vacuum pump with a housing arrangement enclosing a pumping chamber and rotatably supporting a pump rotor with a rotor body having a bearing section and a vane section , wherein the vane section of the rotor body is provided with a vane slit wherein a slidable pump vane is supported which separates the pumping chamber into several rotating pumping compartments , the housing arrangement is provided with a pumping chamber gas inlet opening and with a pumping chamber gas outlet opening , characterised in that the rotor body is provided with a separate oil outlet opening which is lying in a cylindrical plane defined by the cylindrical outer surface of the rotor body and which is open to the pumping chamber , and the opening angle of the oil outlet opening is smaller than the gas- tight commutation sector defined between the gas outlet opening and the gas inlet opening , whereas the opening angle is an angle lying In a radial plane and with the sector center lying in the rotational axis of the pump rotor .
An evaporator that evaporates at least a part of a working fluid by heat absorbed from a heat source , comprising: a housing having a plurality of surfaces including a front surface and a back surface , at least one of the front and back surfaces having the largest area among the plurality of surfaces; and a heat-absorbing element disposed on at least one of the front and back surfaces and thermally connected to the heat source, wherein the housing includes: at least one working fluid inlet located in a surface of the housing, the surface being other than a top surface of the housing; characterized by at least one pair of working fluid outlets located respectively at diagonally opposite corners in opposite longitudinal end portions of the top surface. a housing having a plurality of surfaces including a front surface and a back surface , at least one of the front and back surfaces having the largest area among the plurality of surfaces; and a heat-absorbing element disposed on at least one of the front and back surfaces and thermally connected to the heat source, wherein the housing includes: at least one working fluid inlet located in a surface of the housing, the surface being other than a top surface of the housing; characterized by at least one pair of working fluid outlets located respectively at diagonally opposite corners in opposite longitudinal end portions of the top surface.
Load indicating device for a lifting accessory, comprising: a body capable of being fastened to a lifting part (P) of a lifting accessory ; a plastically deformable member associated with the body and positioned so as to be located, in use, in compression between said lifting part (P) and a lifting element coupled to the lifting accessory to transmit a lifting force, characterised in that the device comprises a cap which, in an initial position, conceals an indicator ; and in that the deformable member is designed such that, when the transmitted force exceeds a predetermined threshold (Fs), the deformable member deforms plastically and causes displacement of the cap so as at least in part to reveal the indicator . a body capable of being fastened to a lifting part (P) of a lifting accessory ; a plastically deformable member associated with the body and positioned so as to be located, in use, in compression between said lifting part (P) and a lifting element coupled to the lifting accessory to transmit a lifting force, characterised in that the device comprises a cap which, in an initial position, conceals an indicator ; and in that the deformable member is designed such that, when the transmitted force exceeds a predetermined threshold (Fs), the deformable member deforms plastically and causes displacement of the cap so as at least in part to reveal the indicator .
Measuring insert for determining and/or monitoring a temperature (T) of a medium (M) in a vessel (V) or pipe, which can be inserted into a protective tube for accommodating the measuring insert , the protective tube at least partially protruding into an inner volume of the vessel (V) or pipe, the measuring insert comprising an elongated tubular member comprising a first section and a second section , and at least one temperature sensor located in an inner volume of the second section , wherein the second section comprises a tubular base body and wherein the base body is connected to the first section of the elongated tubular member , wherein the second section is at least partially embodied and/or dimensioned so as to serve for fixing the measuring insert inside the protective tube in a state in which the measuring insert is introduced into the protective tube , wherein the second section comprises a coupling element arranged on an outer surface of the tubular base body , wherein the coupling element comprises a spring element as a first at least partially elastic and/or deformable element, wherein the coupling element comprises at least one ring element having an inner diameter corresponding to an outer diameter of the tubular base body and the tubular base body comprises at least one section (s1; s2) extending parallel to a longitudinal axis of the base body , in which section (s1; s2) the diameter is reduced and in which section (s1; s2) the coupling element is arranged. the measuring insert comprising an elongated tubular member comprising a first section and a second section , and at least one temperature sensor located in an inner volume of the second section , an elongated tubular member comprising a first section and a second section , and at least one temperature sensor located in an inner volume of the second section , wherein the second section comprises a tubular base body and wherein the base body is connected to the first section of the elongated tubular member , wherein the second section is at least partially embodied and/or dimensioned so as to serve for fixing the measuring insert inside the protective tube in a state in which the measuring insert is introduced into the protective tube , wherein the second section comprises a coupling element arranged on an outer surface of the tubular base body , wherein the coupling element comprises a spring element as a first at least partially elastic and/or deformable element, wherein the coupling element comprises at least one ring element having an inner diameter corresponding to an outer diameter of the tubular base body and the tubular base body comprises at least one section (s1; s2) extending parallel to a longitudinal axis of the base body , in which section (s1; s2) the diameter is reduced and in which section (s1; s2) the coupling element is arranged.
A method of manufacturing one or more workpieces having a desired gear geometry by means of a suitably dressed tool, wherein, after the carrying out of one or more machining steps, the tool is respectively dressed by a dresser before further machining steps are carried out at the same workpiece or at further workpieces, characterized in that , on a later dressing procedure, the relative position between the dresser and the tool is changed with respect to a prior dressing procedure in addition to the smaller center distance resulting by the smaller tool diameter by a corresponding additional adjustment of the axes of movement of the dressing machine.
A flow control valve (1;2) comprising: A bottomed cylindrical base member (10;10A;10B;10C) having a valve chamber ; and a valve member (6;6A) placed in such a manner as to face a valve port formed in a bottom wall portion of the base member (10;10A;10B;10C), the valve member (6;6A) moving toward and away from the valve port along an axis (L), wherein a back pressure chamber separated from the valve chamber is formed outside the base member (10;10A;10B;10C), wherein the base member (10;10A;10B;10C) includes a peripheral wall portion having an inflow port , the inflow port being open on the valve chamber , wherein the bottom wall portion of the base member (10; 10A; 10B;10C) has a flow channel that is continuous with the valve port ; and at least one pressure equalizing hole through which the flow channel is connected to an outside of the base member (10;10A;10B;10C), characterized by , when viewed in a facing direction of the axis (L) in which the valve member (6;6A) and the valve port face each other, the at least one pressure equalizing hole is shifted from a position that is on a center line (M) of the inflow port and that is opposite the inflow port by 30 degrees or greater. A bottomed cylindrical base member (10;10A;10B;10C) having a valve chamber ; and a valve member (6;6A) placed in such a manner as to face a valve port formed in a bottom wall portion of the base member (10;10A;10B;10C), the valve member (6;6A) moving toward and away from the valve port along an axis (L), wherein a back pressure chamber separated from the valve chamber is formed outside the base member (10;10A;10B;10C), wherein the base member (10;10A;10B;10C) includes a peripheral wall portion having an inflow port , the inflow port being open on the valve chamber , wherein the bottom wall portion of the base member (10; 10A; 10B;10C) has a flow channel that is continuous with the valve port ; and at least one pressure equalizing hole through which the flow channel is connected to an outside of the base member (10;10A;10B;10C), characterized by , when viewed in a facing direction of the axis (L) in which the valve member (6;6A) and the valve port face each other, the at least one pressure equalizing hole is shifted from a position that is on a center line (M) of the inflow port and that is opposite the inflow port by 30 degrees or greater.
A power coupling device configured to transfer power between a stator and a rotor , the power coupling device comprising: a support structure defining at least two or more openings ; a core element comprising a ferrite material, the core element configured to be received within the at least two or more openings of the support structure , the core element defining a core channel ; an inductive element configured to be received within the core channel ; and an attachment structure removably attached to the support structure , the attachment structure configured to attach the core element to the support structure , the core element disposed between the support structure and the attachment structure ; and the inductive element is facing a first side of the core element , the attachment structure is facing a second side opposite of the first side of the core element . a support structure defining at least two or more openings ; a core element comprising a ferrite material, the core element configured to be received within the at least two or more openings of the support structure , the core element defining a core channel ; an inductive element configured to be received within the core channel ; and an attachment structure removably attached to the support structure , the attachment structure configured to attach the core element to the support structure , the core element disposed between the support structure and the attachment structure ; and the inductive element is facing a first side of the core element , the attachment structure is facing a second side opposite of the first side of the core element .
A method for controlling the timing of feedback transmissions from a receiving device by a transmitting device communicating over a communication link , wherein the communication link supports a re-transmission scheme and wherein the method comprises: - transmitting a first feedback timing indicator, FTI, and data, characterized in that the first FTI indicates that a second FTI will be transmitted by the transmitting device ; and - transmitting the second FTI, wherein the second FTI indicates when re-transmission feedback related to the data is requested. - transmitting a first feedback timing indicator, FTI, and data, characterized in that the first FTI indicates that a second FTI will be transmitted by the transmitting device ; and - transmitting the second FTI, wherein the second FTI indicates when re-transmission feedback related to the data is requested.
A support for use in a leisure activity or cosmetic treatment wherein the support comprises two sections connected by a section hinge wherein a first section has a single leg suitable for being held between a user's legs wherein the leg is connected by a leg hinge to the first section and where the leg hinge is substantially perpendicular to the section hinge; wherein the section hinge is arranged to divide the support into the two sections such that the two sections have substantially corresponding shapes; wherein the leg hinge is arranged across the middle of the first section such that the support is balanced when its leg is gripped between a user's legs; wherein the leg is shaped to fold into half of the first section; and wherein the leg has one or more stops to prevent its over-rotation beyond an angle of about 90° to a lower surface of the first section.
A multi-core computer system comprising: a first processor core of a first type to execute a program code that includes a user-supplied hint indicative of which processor core of the multi-core computer system the program code should be executed on a second processor core of a second type different from the first type; and circuitry to (i) monitor performance of the execution of the program code by the first processor core , (ii) collecting statistics on the performance of the execution of the program code by the first processor core , (iii) predicting performance of execution of the program code by the second processor core based at least in part on the performance of the execution of the program code by the first processor core and the collected statistics, (iv) determine, based on the performance of execution of the program code by the first processor core and the user-supplied hint, whether the predicted performance of execution of the program code by the second processor core is better than the performance of execution of the program code by the first processor core , and (v) migrate execution of the program code from the first processor core to the second processor core in response to a determination that the predicted performance of execution of the program code by the second processor core is better than the performance of execution of the program code by the first processor core . a first processor core of a first type to execute a program code that includes a user-supplied hint indicative of which processor core of the multi-core computer system the program code should be executed on a second processor core of a second type different from the first type; and circuitry to (i) monitor performance of the execution of the program code by the first processor core , (ii) collecting statistics on the performance of the execution of the program code by the first processor core , (iii) predicting performance of execution of the program code by the second processor core based at least in part on the performance of the execution of the program code by the first processor core and the collected statistics, (iv) determine, based on the performance of execution of the program code by the first processor core and the user-supplied hint, whether the predicted performance of execution of the program code by the second processor core is better than the performance of execution of the program code by the first processor core , and (v) migrate execution of the program code from the first processor core to the second processor core in response to a determination that the predicted performance of execution of the program code by the second processor core is better than the performance of execution of the program code by the first processor core .
A method of separating α-olefins by a simulated moving bed, characterized in that a coal-based Fischer-Tropsch synthetic oil is used as a raw material, and a target olefin has a carbon atom number N within a range from 4 to 18, the method comprising steps of: fraction cutting: subjecting a pretreated raw material to fraction cutting, to obtain a component having a carbon atom number N; alkane-alkene separation: subjecting the component obtained in step to an alkane-alkene separation using a first simulated moving bed, to separate alkanes and alkenes, thereby obtaining an olefin-rich component; and isomer separation: subjecting the olefin-rich component obtained in step to an isomer separation using a second simulated moving bed, to separate a high purity α-olefin product. fraction cutting: subjecting a pretreated raw material to fraction cutting, to obtain a component having a carbon atom number N; alkane-alkene separation: subjecting the component obtained in step to an alkane-alkene separation using a first simulated moving bed, to separate alkanes and alkenes, thereby obtaining an olefin-rich component; and isomer separation: subjecting the olefin-rich component obtained in step to an isomer separation using a second simulated moving bed, to separate a high purity α-olefin product.
Use of a mouse for expressing immunoglobulin (Ig) light chains containing human variable regions; wherein the mouse comprises a genome that is homozygous for an immunoglobulin light chain locus comprising only one human sequence, wherein the only one human sequence corresponds to the sequence of human chromosome 22 from position 23064876 to position 23327884, which comprises human lambda chain gene segments Vλ2-18, Vλ3-16, Vλ2-14, Vλ3-12, Vλ2-11, Vλ3-10, Vλ3-9, Vλ2-8, Vλ4-3 , Vλ3-1, Jλ1-Cλ1, Jλ2-Cλ2, Jλ3-Cλ3, Jλ6-Cλ6, Jλ7-Cλ7, and 3' Eλ inserted downstream of endogenous V and J-C lambda light chain gene segments, between Eλ4-10 and Eλ3-1, the human V gene segments being 5' of the human J gene segments; wherein the endogenous kappa loci have been inactivated; and wherein the mouse expresses immunoglobulin light chains, characterized in that at least 60% of the immunoglobulin light chains expressed by the mouse comprise a human lambda variable region. wherein the mouse comprises a genome that is homozygous for an immunoglobulin light chain locus comprising only one human sequence, wherein the only one human sequence corresponds to the sequence of human chromosome 22 from position 23064876 to position 23327884, which comprises human lambda chain gene segments Vλ2-18, Vλ3-16, Vλ2-14, Vλ3-12, Vλ2-11, Vλ3-10, Vλ3-9, Vλ2-8, Vλ4-3 , Vλ3-1, Jλ1-Cλ1, Jλ2-Cλ2, Jλ3-Cλ3, Jλ6-Cλ6, Jλ7-Cλ7, and 3' Eλ inserted downstream of endogenous V and J-C lambda light chain gene segments, between Eλ4-10 and Eλ3-1, the human V gene segments being 5' of the human J gene segments; wherein the endogenous kappa loci have been inactivated; and wherein the mouse expresses immunoglobulin light chains, characterized in that at least 60% of the immunoglobulin light chains expressed by the mouse comprise a human lambda variable region.