mhurhangee/patent-ind-claim-en huggingface dataset:
A positive ignition engine comprising an exhaust system, the exhaust system comprising a filter for filtering particulate matter (PM) from exhaust gas emitted from a positive ignition engine, which filter comprising a porous substrate having inlet surfaces and outlet surfaces, wherein the inlet surfaces are separated from the outlet surfaces by a porous structure containing pores of a first mean pore size, wherein at least the inlet surfaces of the porous substrate are coated with a catalytic surface washcoat layer comprising a plurality of solid particles, wherein the catalytic surface washcoat layer substantially covers surface pores of the porous structure, wherein the porous structure of the washcoated porous substrate contains pores of a second mean pore size, wherein the pores of the washcoated porous substrate are defined in part by spaces between the particles (interparticle pores) in the washcoat, wherein the second mean pore size is less than the first mean pore size and an average interparticle pore size of the porous washcoat is 5.0nm to 5.0μm and wherein the catalytic washcoat is a three-way catalyst comprising: platinum and rhodium; palladium and rhodium; or platinum, palladium and rhodium as active components supported on a high surface area oxide; and an oxygen storage component, wherein the catalytic washcoat comprises at least one molecular sieve. which filter comprising a porous substrate having inlet surfaces and outlet surfaces, wherein the inlet surfaces are separated from the outlet surfaces by a porous structure containing pores of a first mean pore size, wherein at least the inlet surfaces of the porous substrate are coated with a catalytic surface washcoat layer comprising a plurality of solid particles, wherein the catalytic surface washcoat layer substantially covers surface pores of the porous structure, wherein the porous structure of the washcoated porous substrate contains pores of a second mean pore size, wherein the pores of the washcoated porous substrate are defined in part by spaces between the particles (interparticle pores) in the washcoat, wherein the second mean pore size is less than the first mean pore size and an average interparticle pore size of the porous washcoat is 5.0nm to 5.0μm and wherein the catalytic washcoat is a three-way catalyst comprising: platinum and rhodium; palladium and rhodium; or platinum, palladium and rhodium as active components supported on a high surface area oxide; and an oxygen storage component, wherein the catalytic washcoat comprises at least one molecular sieve.
Valve cartridge for a magnet valve, having a capsule , an armature , which is movably guided within the capsule , a hollow-cylindrical valve insert , a first end of which is inserted into the capsule , and a valve body having a primary valve seat (9.1), which is inserted into a second end of the hollow-cylindrical valve insert , wherein the armature moves a plunger guided within the valve insert , said plunger having a main body and a closing body (11.1) having a closing element (11.2), which plunges into the primary valve seat (9.1) of the valve body in a sealing manner in order to carry out a sealing function, wherein at least one equalization groove is introduced into the main body of the plunger , said groove enabling a volume equalization between a sealing region (9.2) and an armature chamber , wherein the plunger has an axial recess , which has an overlap with the at least one equalization groove in the main body and is connected to the armature chamber via at least one radial recess , characterized in that the plunger has, at its end facing the armature , a closed encircling cylindrical outer contour , which forms a radial guide of the plunger in the valve insert .
A magnetizing device for magnetizing an element , wherein the magnetizing device comprises: a magnetic field generation unit arranged in a housing of the magnetizing device, the magnetic field generation unit being configured to generate a parallel magnetic field in a preset region (A), wherein the parallel magnetic field magnetizes the element when located in the preset region (A); and a shielding mechanism for shielding part of the magnetic field generated by the magnetizing device, wherein the shielding mechanism comprises a first shielding part and a second shielding part connected to the housing respectively, the first shielding part and the second shielding part are arranged opposite to each other, an opening is provided between the first shielding part and the second shielding part , and one of the first shielding part and the second shielding part is capable of moving relative to the other, to adjust a size of the opening to enable the opening to coincide with the preset region (A). a magnetic field generation unit arranged in a housing of the magnetizing device, the magnetic field generation unit being configured to generate a parallel magnetic field in a preset region (A), wherein the parallel magnetic field magnetizes the element when located in the preset region (A); and a shielding mechanism for shielding part of the magnetic field generated by the magnetizing device, wherein the shielding mechanism comprises a first shielding part and a second shielding part connected to the housing respectively, the first shielding part and the second shielding part are arranged opposite to each other, an opening is provided between the first shielding part and the second shielding part , and one of the first shielding part and the second shielding part is capable of moving relative to the other, to adjust a size of the opening to enable the opening to coincide with the preset region (A).
A method to operate an overhead door with a door operating system, which operating system is provided with: - a motion sensor which detects in a contactless manner whether or not the overhead door is moving; - a switch member connected to an electrical power supply ; - a motor connected to the switch member which operates the overhead door ; and - a decision unit connected to the switch member , wherein the overhead door is operated by the motor by means of a cable , and the decision unit interrupts the electrical power supply to the motor when the decision unit has not received confirmation from the motion sensor that the door is moving within a certain period of time after operating the switch member . - a motion sensor which detects in a contactless manner whether or not the overhead door is moving; - a switch member connected to an electrical power supply ; - a motor connected to the switch member which operates the overhead door ; and - a decision unit connected to the switch member , wherein the overhead door is operated by the motor by means of a cable , and the decision unit interrupts the electrical power supply to the motor when the decision unit has not received confirmation from the motion sensor that the door is moving within a certain period of time after operating the switch member .
A radio frequency (RF) connector block assembly , comprising: a multi-connector block comprising a plurality of housing ports , wherein the multi-connector block is attachable to an external structure ; a plurality of housings , wherein each of the plurality of housings is removably mounted in one of the plurality of housing ports , and wherein a housing of the plurality of housings is independently removably mounted from another housing of the plurality of housings; characterised by further comprising a contact pin movably disposed in each of the plurality of housings , wherein the contact pin in a housing of the plurality of housings is independently axially movable in a first direction and a second direction from the contact pin in another housing of the plurality of housings. a multi-connector block comprising a plurality of housing ports , wherein the multi-connector block is attachable to an external structure ; a plurality of housings , wherein each of the plurality of housings is removably mounted in one of the plurality of housing ports , and wherein a housing of the plurality of housings is independently removably mounted from another housing of the plurality of housings; characterised by further comprising a contact pin movably disposed in each of the plurality of housings , wherein the contact pin in a housing of the plurality of housings is independently axially movable in a first direction and a second direction from the contact pin in another housing of the plurality of housings.
An ophthalmologic measurement apparatus for measuring a subject eye (E), comprising: a measurement unit configured to objectively measure eye refractive power of the subject eye (E); an acquisition unit configured to acquire intraocular lens information relating to an intraocular lens (IOL) inserted into the subject eye (E); and a correction unit configured to correct a measurement result of the eye refractive power, based on the intraocular lens information. a measurement unit configured to objectively measure eye refractive power of the subject eye (E); an acquisition unit configured to acquire intraocular lens information relating to an intraocular lens (IOL) inserted into the subject eye (E); and a correction unit configured to correct a measurement result of the eye refractive power, based on the intraocular lens information.
A lithium secondary battery comprising a cathode, an anode, a separator disposed between the cathode and the anode, and a non-aqueous electrolyte, wherein an ionomer represented by the following Formula 1 is comprised in at least one element selected from the group consisting of the cathode and the anode: where A and B are independently H, F, CH 3 , CF 3 or CF 2 H, a molar ratio of -CF-O-(CF 2 ) 2 -SO 3 - Li + : -CF 2 - is 10 to 100 : 0 to 90, and k is an integer of at least 1. where A and B are independently H, F, CH 3 , CF 3 or CF 2 H, a molar ratio of -CF-O-(CF 2 ) 2 -SO 3 - Li + : -CF 2 - is 10 to 100 : 0 to 90, and k is an integer of at least 1.
A bevel gear face cutter head for face hobbing and face milling of bevel and hypoid gears, said cutter head being generally disc-shaped and rotatable about a cutter head axis (A), said cutter head comprising: a first side and a second side , one or more cutting blade positioning slots arranged in said cutter head with each of said blade positioning slots extending between said first and second sides and defining a four-sided shaped cross-section, said blade positioning slots each having at least one blade seating surface (4; 22) extending between said first and second sides , characterized in that said at least one blade seating surface (4; 22) has a modified shape and extends from said first side to said second side wherein said modified shape departs from the shape of a continuous straight seating surface extending from said first side to said second side , whereby the cutter head is capable of clamping a cutting blade to said blade seating surface (4; 22) and of adjusting the cutting blade radially after it is pre-clamped and axially located. a first side and a second side , one or more cutting blade positioning slots arranged in said cutter head with each of said blade positioning slots extending between said first and second sides and defining a four-sided shaped cross-section, said blade positioning slots each having at least one blade seating surface (4; 22) extending between said first and second sides , characterized in that said at least one blade seating surface (4; 22) has a modified shape and extends from said first side to said second side wherein said modified shape departs from the shape of a continuous straight seating surface extending from said first side to said second side , whereby the cutter head is capable of clamping a cutting blade to said blade seating surface (4; 22) and of adjusting the cutting blade radially after it is pre-clamped and axially located.
A method to determine a speed profile for a stairlift for transporting a person along a staircase , wherein the stairlift comprises guide means extending along the staircase ; a carriage being moveable along the guide means and configured to carry a person; and user interaction means for operating the stairlift ; wherein the carriage is rotatable around a vertical axle (A) by a first drive ; wherein the method comprises the steps of: determining a specific mass moment of inertia for a specific person by calculating a correlation between applied torque and resulting rotational acceleration for the first drive with the specific person carried on the carriage or by measuring the specific person's weight while the specific person is carried on the carriage ; setting an optimal torque according to the specific mass moment of inertia; and determining the speed profile applying at the most the optimal torque with the first drive . guide means extending along the staircase ; a carriage being moveable along the guide means and configured to carry a person; and user interaction means for operating the stairlift ; wherein the carriage is rotatable around a vertical axle (A) by a first drive ; wherein the method comprises the steps of: determining a specific mass moment of inertia for a specific person by calculating a correlation between applied torque and resulting rotational acceleration for the first drive with the specific person carried on the carriage or by measuring the specific person's weight while the specific person is carried on the carriage ; setting an optimal torque according to the specific mass moment of inertia; and determining the speed profile applying at the most the optimal torque with the first drive . determining a specific mass moment of inertia for a specific person by calculating a correlation between applied torque and resulting rotational acceleration for the first drive with the specific person carried on the carriage or by measuring the specific person's weight while the specific person is carried on the carriage ; setting an optimal torque according to the specific mass moment of inertia; and determining the speed profile applying at the most the optimal torque with the first drive .
A method for determining the position of a substrate within a closed chamber , wherein the substrate is moved within the chamber by a transport system comprising at least one rotating shaft (20, 20a-20f), the method comprising the steps of: - providing a load-converting element (30, 30a-30f) adjacent to at least one of the rotating shafts (20, 20a-20f), wherein the load-converting element (30, 30a-30f) is arranged within a radial bearing holding the rotating shaft (20, 20a-20f) and wherein the load-converting element (30, 30a-30f) is suited for detecting a load acting on the at least one rotating shaft (20, 20a-20f) and for converting it into an electrical parameter corresponding to the load, - measuring a first output signal (S 1 ) corresponding to a first value of the electrical parameter of the load-converting element (30, 30a-30f) while no substrate is present on the at least one rotating shaft (20, 20a-20f), - monitoring the output signal corresponding to the value of the electrical parameter of the load-converting element (20, 20a-20f) and - detecting a presence of the substrate on the at least one rotating shaft (20, 20a-20f) when the output signal of the load-converting element (30, 30a-30f) differs from the first output signal (S 1 ) by at least a predetermined amount, and - detecting a wear of the bearing if the output signal shows a linear or superlinear drift over a time period including a large plurality of substrate passages over the rotating shaft (20, 20a-20f). - providing a load-converting element (30, 30a-30f) adjacent to at least one of the rotating shafts (20, 20a-20f), wherein the load-converting element (30, 30a-30f) is arranged within a radial bearing holding the rotating shaft (20, 20a-20f) and wherein the load-converting element (30, 30a-30f) is suited for detecting a load acting on the at least one rotating shaft (20, 20a-20f) and for converting it into an electrical parameter corresponding to the load, - measuring a first output signal (S 1 ) corresponding to a first value of the electrical parameter of the load-converting element (30, 30a-30f) while no substrate is present on the at least one rotating shaft (20, 20a-20f), - monitoring the output signal corresponding to the value of the electrical parameter of the load-converting element (20, 20a-20f) and - detecting a presence of the substrate on the at least one rotating shaft (20, 20a-20f) when the output signal of the load-converting element (30, 30a-30f) differs from the first output signal (S 1 ) by at least a predetermined amount, and - detecting a wear of the bearing if the output signal shows a linear or superlinear drift over a time period including a large plurality of substrate passages over the rotating shaft (20, 20a-20f).
A master-slave system having a master robot and a slave robot and being subjected to bilateral control, the master robot being an admittance-type haptic device manipulated by an operator (U), the slave robot being at least electrically connected to the master robot and having portions at least other than the trunk (B) operating mechanically independent of the master robot, the system comprising at least one master actuator (Am) for generating a master driving force to control the master robot in terms of joint displacement, at least one slave actuator (As) for generating a slave driving force to control the slave robot in terms of driving force, at least one master displacement (Pm) sensor for measuring a master displacement for the master robot, at least one slave displacement sensor (Ps) for measuring a slave displacement for the slave robot and at least one operating force sensor (Fm) for measuring a master operating force applied to the master robot by the operator (U), characterized in that the system further comprises: at least one effective driving force sensor (Fs) for measuring a slave effective driving force actually acting on a terminal output axis of the slave actuator (As); a master target displacement calculating device for calculating a master target displacement which is a target value for the master displacement, on the basis of the slave displacement; and a slave target effective driving force calculating device for calculating a slave target effective driving force which is a target value for the slave effective driving force, on the basis of the master operating force, wherein, the master actuator (Am) is adapted to generate the master driving force on the basis of the master target displacement and the master displacement, whereas the slave actuator (As) is adapted to generate the slave driving force on the basis of the slave target effective driving force and the slave effective driving force. at least one effective driving force sensor (Fs) for measuring a slave effective driving force actually acting on a terminal output axis of the slave actuator (As); a master target displacement calculating device for calculating a master target displacement which is a target value for the master displacement, on the basis of the slave displacement; and a slave target effective driving force calculating device for calculating a slave target effective driving force which is a target value for the slave effective driving force, on the basis of the master operating force, wherein, the master actuator (Am) is adapted to generate the master driving force on the basis of the master target displacement and the master displacement, whereas the slave actuator (As) is adapted to generate the slave driving force on the basis of the slave target effective driving force and the slave effective driving force.
A crystal form A of apatinib mesylate characterized in that the XRPD pattern has a diffraction peak at 2θ values of 5.34, 10.341, 14.438, 15.841, 17.32, 18.301, 18.68, 19.005, 19.577, 20.26, 21.161, 21.859, 22.379, 23.04, 23.5, 24.177, 24.959, 25.881, 26.641, 27.18, 28.3, 28.999, 29.501, 31.96, 32.258, 33.999, 36.798, 37.38 and 41.297 with the error range of the 2θ values being ±0.2.
A surgical device comprising: a housing defining a filter chamber and a pump chamber therein, the filter chamber in fluid communication with the pump chamber; a filter assembly disposed within the filter chamber; a pump disposed within the pump chamber; and an elongate body extending distally from the housing, the elongate body defining first and second lumens therethrough, the elongate body including at least one first opening in fluid communication with the first lumen and at least one second opening in fluid communication with the second lumen, the first lumen in fluid communication with the filter chamber of the housing and the second lumen in fluid communication with the pump chamber of the housing thereby forming a filtration loop through the surgical device, characterized in that : the filtration loop is a closed filtration loop, and the elongate body is an elongate shaft extending along a longitudinal axis. a housing defining a filter chamber and a pump chamber therein, the filter chamber in fluid communication with the pump chamber; a filter assembly disposed within the filter chamber; a pump disposed within the pump chamber; and an elongate body extending distally from the housing, the elongate body defining first and second lumens therethrough, the elongate body including at least one first opening in fluid communication with the first lumen and at least one second opening in fluid communication with the second lumen, the first lumen in fluid communication with the filter chamber of the housing and the second lumen in fluid communication with the pump chamber of the housing thereby forming a filtration loop through the surgical device, characterized in that : the filtration loop is a closed filtration loop, and the elongate body is an elongate shaft extending along a longitudinal axis.
Control system for power supply components (SV1, SV2, SV3) of at least one system and by which an energy supply of control and/or computer units of the at least one system is monitored and controlled, comprising: - a central server unit (ZS) with assigned database (DB) for storing specific data and/or parameters of the respective power supply components (SV1, SV2, SV3); characterised in that the central server unit (ZS) is designed to send an identification call to the power supply components, and that the control system comprises the following units: - client units (C1, C2, C3) for communication and for transmitting the specific data and/or parameters from and to the power supply components (SV1, SV2, SV3), wherein a separate client unit (C1, C2, C3) can be generated for each power supply component connected via a communication network and identified by means of the identification call; - local server units (LS1, LS2, LS3) for communication with the respective client units (C1, C2, C3), which are permanently assigned to the respective power supply components (SV1, SV2, SV3). - a central server unit (ZS) with assigned database (DB) for storing specific data and/or parameters of the respective power supply components (SV1, SV2, SV3); - client units (C1, C2, C3) for communication and for transmitting the specific data and/or parameters from and to the power supply components (SV1, SV2, SV3), wherein a separate client unit (C1, C2, C3) can be generated for each power supply component connected via a communication network and identified by means of the identification call; - local server units (LS1, LS2, LS3) for communication with the respective client units (C1, C2, C3), which are permanently assigned to the respective power supply components (SV1, SV2, SV3).