mhurhangee/patent-ind-claim-en huggingface dataset:
Sales and transport container having mutually opposite longitudinal and transverse lateral walls which are disposed so as to be replaceable on the corner posts of a frame , wherein furthermore a horizontal base wall is disposed on the longitudinal and transverse lateral walls , wherein the frame has two longitudinal bars which connected the corner posts to one another and furthermore has two transverse bars which are disposed on the longitudinal bars , and wherein provided is a retrofitting kit which has castors and is disposed so as to be replaceable on the frame , wherein the retrofitting kit is disposed on the transverse bars of the container; wherein the retrofitting kit for disposal on the two transverse bars has four holding eyelets, wherein the holding eyelets are embodied so as to be U-shaped, and wherein furthermore the holding eyelets in terms of size and shape are shaped so as to correspond to the transverse bars and are, therefore, embodied so as to be able to be disposed on the transverse bars of the container , and wherein furthermore the holding eyelets are attached so as to be stationary on the corners of a frame part .
A power system comprising: at least one power generation system comprising a plurality of wind turbine generators, the power generation system being configured to supply AC power to a sending end ; a sending end converter configured to convert the AC power into DC power, the sending end converter having a receiving end which is connected to the sending end via an AC transmission line ; a receiving end converter configured to convert the DC power into AC power, the receiving end converter being connected to the sending end converter via a DC transmission line ; a protection device configured to control the sending end converter to execute a protective operation for lowering AC voltage at the receiving end when DC voltage in the DC transmission line rises beyond a threshold; and a control device configured to control the at least one power generation system to execute a stabilization operation for increasing a supply of reactive power to the sending end corresponding to the protective operation executed by the sending end converter ;the power system being characterized in that the control device is configured to control at least one wind turbine generator selected from the plurality of wind turbine generators to execute the stabilizing operation, the stabilization operation is executed by increasing the reactive power so as to obtair intersections between a P-V curve and an active power Ps in the sending end, and the stabilization operation is executed immediately before the execution of the protective operation. at least one power generation system comprising a plurality of wind turbine generators, the power generation system being configured to supply AC power to a sending end ; a sending end converter configured to convert the AC power into DC power, the sending end converter having a receiving end which is connected to the sending end via an AC transmission line ; a receiving end converter configured to convert the DC power into AC power, the receiving end converter being connected to the sending end converter via a DC transmission line ; a protection device configured to control the sending end converter to execute a protective operation for lowering AC voltage at the receiving end when DC voltage in the DC transmission line rises beyond a threshold; and a control device configured to control the at least one power generation system to execute a stabilization operation for increasing a supply of reactive power to the sending end corresponding to the protective operation executed by the sending end converter ;the power system being characterized in that the control device is configured to control at least one wind turbine generator selected from the plurality of wind turbine generators to execute the stabilizing operation, the stabilization operation is executed by increasing the reactive power so as to obtair intersections between a P-V curve and an active power Ps in the sending end, and the stabilization operation is executed immediately before the execution of the protective operation.
A connector fitting device configured to fit a first connector to a second connector , comprising: a movable arm body connected to a base on a base end side of the movable arm body ; and a gripper connected to a distal end side of the movable arm body , configured to grip the first connector , and including a pair of clamping portions , wherein the connector fitting device is configured to move the gripper to an arbitrary position in a three-dimensional space and in an arbitrary direction in the three-dimensional space, characterized in that the pair of clamping portions each includes first two protrusions protruding toward an opponent clamping portion and arranged spaced apart from each other in a vertical direction orthogonal to the fitting direction of the first connector with respect to the second connector and orthogonal to the clamping direction of the pair of clamping portions , and a contact surface formed rearward of the first two protrusions . a movable arm body connected to a base on a base end side of the movable arm body ; and a gripper connected to a distal end side of the movable arm body , configured to grip the first connector , and including a pair of clamping portions , wherein the connector fitting device is configured to move the gripper to an arbitrary position in a three-dimensional space and in an arbitrary direction in the three-dimensional space, characterized in that the pair of clamping portions each includes first two protrusions protruding toward an opponent clamping portion and arranged spaced apart from each other in a vertical direction orthogonal to the fitting direction of the first connector with respect to the second connector and orthogonal to the clamping direction of the pair of clamping portions , and a contact surface formed rearward of the first two protrusions .
Compound of formula (I): wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 are each independently selected from: -H, -(C 1 -C 12 )-alkyl, - O-(C 1 -C 12 )-alkyl, -(C 4 -C 12 )-aryl, and the radicals R 1 , R 2 , R3, R 4 , R 5 , and also the radicals R 6 , R 7 , R 8 , R 9 , R 10 , may form fused systems with one another.
A detection analyzer, comprising a first sample input/output element , a second sample input/output element , a sample compartment , a vibration platform , a vibration generator , a data acquisition system , and a data display ; wherein the first sample input/ output element and the second sample input/output element are respectively in communication with the sample compartment ; the vibration platform is located in the sample compartment ; the vibration generator is located outside the sample compartment and the vibration platform is connected to the vibration generator ; the data acquisition system is located outside the sample compartment and is connected to the vibration platform ; and the data display is connected to the data acquisition system ; the vibration platform is comprised of a pressure sensitive material, wherein the pressure sensitive material is piezoelectric crystal, such as a quartz material; the vibration generator has a function of driving the vibration platform to vibrate at a fixed frequency by applying a voltage; the detection analyzer being characterized in that a laser converter is located below the sample compartment , and the lower surface of the sample compartment is transparent; wherein the laser converter is suitable for generating different wavelengths of excitation light required by different materials to generate photoinduced biochemical reactions, thereby causing corresponding changes in an organism to be tested; and in that the vibration platform is suitable for one-side two-way vibration, such that it can vibrate up and down or left and right, to reduce vibration difference of each point on the vibration platform and ensure measurement accuracy. the vibration platform is comprised of a pressure sensitive material, wherein the pressure sensitive material is piezoelectric crystal, such as a quartz material; the vibration generator has a function of driving the vibration platform to vibrate at a fixed frequency by applying a voltage; the detection analyzer being characterized in that a laser converter is located below the sample compartment , and the lower surface of the sample compartment is transparent; wherein the laser converter is suitable for generating different wavelengths of excitation light required by different materials to generate photoinduced biochemical reactions, thereby causing corresponding changes in an organism to be tested; and in that the vibration platform is suitable for one-side two-way vibration, such that it can vibrate up and down or left and right, to reduce vibration difference of each point on the vibration platform and ensure measurement accuracy.
A method for fluxing or degassing a molten metal residing as a bath in a furnace, said bath of molten metal having a bath surface height, the method comprises providing a refractory body, which forms an elongated generally cylindrical tube to elevate at least a portion of the molten metal above said bath surface height, whereby at a top of the tube a volute shaped chamber is provided to direct the molten metal vortex created by rotation to a impeller outwardly into a trough and introducing at least one of a fluxing agent and an inert gas to the elevated portion of the molten metal in the region of the volute shaped chamber and/or the trough.
A method for measuring the distribution of the thickness of the glass in glass containers at a high temperature leaving shaping cavities , the method applying at least one sensor sensitive to the infrared radiation emitted by the containers suitable for producing an image of the distribution of the infrared radiation, by measuring in the near infrared range the distribution of infrared radiation emitted by the container, characterized in that it includes for each container the following steps: - selecting at least one inspection area ( Z ) of the container so that for each inspection area ( Z ), the parameters having an influence on the infrared radiation other than the glass thickness, each have substantially homogeneous values over the whole of said inspection area ( Z ), - measuring, for each inspection area ( Z ), the glass thickness of the container in at least one measurement point belonging to the inspection area ( Z ), by means of a contactless point-like thickness measurement system giving absolute thickness measurements of the glass according to the metric system, - measuring by means of the sensor sensitive to infrared radiation , the distribution of the infrared radiation emitted by the container at least in each inspection area ( Z ), - determining, for each inspection area ( Z ), a relationship between the measurement of the thickness taken at the measurement point and the relevant infrared radiation at said measurement point, for calibrating each inspection area ( Z ) and for each container , - and from said relationship and from the distribution of the relevant infrared radiation of each inspection area, determining the distribution of the glass thickness of the container of each inspection area ( Z ). - selecting at least one inspection area ( Z ) of the container so that for each inspection area ( Z ), the parameters having an influence on the infrared radiation other than the glass thickness, each have substantially homogeneous values over the whole of said inspection area ( Z ), - measuring, for each inspection area ( Z ), the glass thickness of the container in at least one measurement point belonging to the inspection area ( Z ), by means of a contactless point-like thickness measurement system giving absolute thickness measurements of the glass according to the metric system, - measuring by means of the sensor sensitive to infrared radiation , the distribution of the infrared radiation emitted by the container at least in each inspection area ( Z ), - determining, for each inspection area ( Z ), a relationship between the measurement of the thickness taken at the measurement point and the relevant infrared radiation at said measurement point, for calibrating each inspection area ( Z ) and for each container , - and from said relationship and from the distribution of the relevant infrared radiation of each inspection area, determining the distribution of the glass thickness of the container of each inspection area ( Z ).
Method for compensation of eddy current (E1, E2, E3) induced magnetic fields (MF) in a magnetic resonance imaging system , comprising the steps: - providing an MR-sequence (M) comprising a number of gradients (G), - providing a dataset (D) comprising values to generate a number of constant currents (S1, S2, S3) designed to compensate magnetic fields (MF) induced by eddy currents (E1, E2, E3) of the gradients (G) of the MR-sequence (M) at least at one defined point in time (PT1, PT2) on at least one gradient axis, - defining a number of points in time (PT1, PT2) within the time period of the MR-sequence (M), - calculating a number of constant currents (S1, S2, S3) for a number of coils of the magnetic resonance imaging system based on the dataset (D), wherein the number of constant currents (S1, S2, S3) is designed to compensate magnetic fields (MF) induced by eddy currents (E1, E2, E3) of the gradients (G) of the MR-sequence (M) at least at one defined point in time (PT1, PT2), - applying the calculated number of constant currents (S1, S2, S3) on the related coils generating constant compensation fields prior or during the application of the MR-sequence (M) or a section of the MR-sequence, characterised in that said number of coils are shim coils configured to generate magnetic fields of higher spatial orders, i.e. greater than or equal to the second spatial order. - providing an MR-sequence (M) comprising a number of gradients (G), - providing a dataset (D) comprising values to generate a number of constant currents (S1, S2, S3) designed to compensate magnetic fields (MF) induced by eddy currents (E1, E2, E3) of the gradients (G) of the MR-sequence (M) at least at one defined point in time (PT1, PT2) on at least one gradient axis, - defining a number of points in time (PT1, PT2) within the time period of the MR-sequence (M), - calculating a number of constant currents (S1, S2, S3) for a number of coils of the magnetic resonance imaging system based on the dataset (D), wherein the number of constant currents (S1, S2, S3) is designed to compensate magnetic fields (MF) induced by eddy currents (E1, E2, E3) of the gradients (G) of the MR-sequence (M) at least at one defined point in time (PT1, PT2), - applying the calculated number of constant currents (S1, S2, S3) on the related coils generating constant compensation fields prior or during the application of the MR-sequence (M) or a section of the MR-sequence,
An insert (810;1010;1110;1210;1310) for a tubular handling tool, comprising: a gripping element (812;900;1012) having an elongated body and a plurality of contact features (820;906;1028); a base (818;1018;1118;1218;1318) formed from a hard material and having a slot (816;1016;1316); a filling element (814;1014;1114;1314) formed from an elastic material, and disposed in a bottom portion of the slot (816;1016;1316); wherein: the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations. a gripping element (812;900;1012) having an elongated body and a plurality of contact features (820;906;1028); a base (818;1018;1118;1218;1318) formed from a hard material and having a slot (816;1016;1316); a filling element (814;1014;1114;1314) formed from an elastic material, and disposed in a bottom portion of the slot (816;1016;1316); wherein: the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations. the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations.
An oil supply device configured to supply oil to a lubricated member of a gas turbine , the oil supply device comprising: a lubrication extraction pipe including a first end and a second end, the first end communicating with a compressor of the gas turbine ; an oil tank configured to store the oil; and an oil pipe including a first end and a second end, the first end communicating with the oil tank , the second end communicating with the lubrication extraction pipe ; characterized in that : an ejection port is provided at the second end of the lubrication extraction pipe and directed to the lubricated member ; the oil supply device further comprises an electric pump interposed on a portion of the oil pipe and configured to suck the oil from the oil tank and supply the oil to an inside of the lubrication extraction pipe . a lubrication extraction pipe including a first end and a second end, the first end communicating with a compressor of the gas turbine ; an oil tank configured to store the oil; and an oil pipe including a first end and a second end, the first end communicating with the oil tank , the second end communicating with the lubrication extraction pipe ; characterized in that : an ejection port is provided at the second end of the lubrication extraction pipe and directed to the lubricated member ; the oil supply device further comprises an electric pump interposed on a portion of the oil pipe and configured to suck the oil from the oil tank and supply the oil to an inside of the lubrication extraction pipe . an ejection port is provided at the second end of the lubrication extraction pipe and directed to the lubricated member ; the oil supply device further comprises an electric pump interposed on a portion of the oil pipe and configured to suck the oil from the oil tank and supply the oil to an inside of the lubrication extraction pipe .
An antenna control device , comprising: a main controller for generating a control signal for adjusting a device provided in an antenna; a modem unit for converting the control signal generated by the main controller into an on-off keying (OOK) signal; a power management unit for supplying direct current power; and an OOK port for synthesizing and outputting the OOK signal converted by the modem unit and the direct current power supplied by the power management unit , characterized in that the antenna control device is portable and further comprises an RS-232 converter for converting the control signal generated by the main controller into an RS-232 signal; and an RS-232 port for synthesizing and outputting the RS-232 signal converted by the RS-232 converter and DC power provided from the power management unit . a main controller for generating a control signal for adjusting a device provided in an antenna; a modem unit for converting the control signal generated by the main controller into an on-off keying (OOK) signal; a power management unit for supplying direct current power; and an OOK port for synthesizing and outputting the OOK signal converted by the modem unit and the direct current power supplied by the power management unit , characterized in that the antenna control device is portable and further comprises an RS-232 converter for converting the control signal generated by the main controller into an RS-232 signal; and an RS-232 port for synthesizing and outputting the RS-232 signal converted by the RS-232 converter and DC power provided from the power management unit .
Air spring strut for a motor vehicle comprising an air spring having a shock absorber for spring-cushioning and damping oscillations of a motor vehicle chassis, wherein the air spring comprises an air spring cover and an air spring piston, wherein an air spring bellows made of elastomer material clamped air-tightly between the air spring cover and air spring piston partially delimits a working space filled with compressed air and, while forming a rolling fold , rolls on the air spring cover and/or air spring piston, wherein the air spring cover is embodied in two parts with a first cover part for receiving an absorber bearing and with a second cover part for fastening the air spring bellows , wherein the first cover part is manufactured from metal and the second cover part is manufactured from plastic, characterized in that the first and second cover part are of pot-shaped design, wherein the first cover part is inserted into the second cover part .
Contact element for electrically connecting a power semiconductor module to an external electronic component, said power semiconductor module comprising a circuit carrier having at least one conductive lead, and at least one semiconductor element , wherein said contact element comprises: a contact part adapted to be sintered to the circuit carrier , thereby being electrically connected to said conductive lead; and at least one contact pin for contacting to the external electronic component; wherein said contact part is at least partly covered with a coating facilitating the sinter connection; characterized in that said contact part comprises a protrusion adapted to be at least partly inserted into a receptacle element provided at the contact pin , wherein said contact pin and said contact part are formed so as to be fixed to each other via a press-fit connection or a screw fitting. a contact part adapted to be sintered to the circuit carrier , thereby being electrically connected to said conductive lead; and at least one contact pin for contacting to the external electronic component; wherein said contact part is at least partly covered with a coating facilitating the sinter connection; characterized in that said contact part comprises a protrusion adapted to be at least partly inserted into a receptacle element provided at the contact pin , wherein said contact pin and said contact part are formed so as to be fixed to each other via a press-fit connection or a screw fitting.
A rapid suction filtration apparatus comprising a filter and a vacuum pump , the suction filtration end of the filter being pneumatically connected through one or more valves (6; 14, 15; 16, 17, 18, 19) to the air suction end and to the air exhaust end of the vacuum pump , characterized in that the rapid suction filtration apparatus further comprises a controller suitable to control said one or more valves (6; 14, 15; 16, 17, 18, 19) for alternately connecting said air suction end and said air exhaust end to said suction filtration end , so that negative pressure and positive pressure are alternatively applied to the filter .