mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for performing generative design with feature thickness control for providing a shape of an object for use in manufacturing, the method comprising: obtaining, by a computer aided design program, a design space for a modeled object, for which a corresponding physical structure is to be manufactured, and one or more design criteria for the modeled object, wherein the one or more design criteria include a thickness specification for the modeled object; iteratively varying, by the computer aided design program, a three-dimensional shape of the modeled object in the design space in accordance with the one or more design criteria, wherein the iteratively varying comprises controlling a thickness of the three-dimensional shape using the thickness specification by measuring thickness values for the three-dimensional shape during the iteratively varying, the measuring comprising preparing (185B-1) a voxelized sheet and line skeleton for the three-dimensional shape, and defining (185B-2) the thickness values for the three-dimensional shape using the voxelized sheet and line skeleton; and providing, by the computer aided design program, the three-dimensional shape of the modeled object for use in manufacturing the physical structure using one or more computer-controlled manufacturing systems, wherein providing the three-dimensional shape of the modeled object comprises: generating a toolpath specification using the three-dimensional shape of the model for use in manufacturing the physical structure. obtaining, by a computer aided design program, a design space for a modeled object, for which a corresponding physical structure is to be manufactured, and one or more design criteria for the modeled object, wherein the one or more design criteria include a thickness specification for the modeled object; iteratively varying, by the computer aided design program, a three-dimensional shape of the modeled object in the design space in accordance with the one or more design criteria, wherein the iteratively varying comprises controlling a thickness of the three-dimensional shape using the thickness specification by measuring thickness values for the three-dimensional shape during the iteratively varying, the measuring comprising preparing (185B-1) a voxelized sheet and line skeleton for the three-dimensional shape, and defining (185B-2) the thickness values for the three-dimensional shape using the voxelized sheet and line skeleton; and preparing (185B-1) a voxelized sheet and line skeleton for the three-dimensional shape, and defining (185B-2) the thickness values for the three-dimensional shape using the voxelized sheet and line skeleton; and providing, by the computer aided design program, the three-dimensional shape of the modeled object for use in manufacturing the physical structure using one or more computer-controlled manufacturing systems, wherein providing the three-dimensional shape of the modeled object comprises: generating a toolpath specification using the three-dimensional shape of the model for use in manufacturing the physical structure.
A process for the continuous preparation of polymers in a polymerization apparatus, where the starting materials comprise at least one olefinically unsaturated polyether macromonomer and at least one olefinically unsaturated acid monomer and at least one free-radical initiator and the polymerization is carried out at temperatures in the range from -20 to +120°C, wherein the polymerization apparatus comprises at least one loop reactor which has at least one feed line for the starting materials and at least one outlet, where the loop reactor comprises at least one reaction zone with internal cooling and mixing elements and the at least one reaction zone has a volume-based heat removal power of at least 10 kW/m 3 ·K.
Heat-sealable coating system suitable for the sealing of various types of substrates, comprising a film-forming dispersion, characterized in that said dispersion comprises between 10% and 60% by weight of a polyester or polyester mixture as polymer type A, between 10% and 60% by weight of a poly (meth) acrylate as polymer type B, between 1% and 20% by weight of a graft copolymer of polymer type A and polymer type B as polymer type AB, between 1% and 30% by weight of a polyolefin as polymer type C, and between 1 and 35% by weight of a graft copolymer as polymer type CD, composed of polymer type C and of a poly(meth)acrylate as polymer type D, based in each case on the total mass of the polymer types A, B, C, AB, and CD, that the proportion of the polymer type C, inclusive of the proportions in polymer type CD, based on said total mass, is between 5 and 40% by weight, that from 10% to 40% of the carbons of the main chain of the polymer type C are tertiary carbon atoms, that component C comprises a proportion of between 20 and 70% by weight of repeating ethylene units, and its weight-average molecular weight M w is between 10 000 and 250 000, and that the solids content of the dispersion is between 25 and 70% by weight. between 10% and 60% by weight of a polyester or polyester mixture as polymer type A, between 10% and 60% by weight of a poly (meth) acrylate as polymer type B, between 1% and 20% by weight of a graft copolymer of polymer type A and polymer type B as polymer type AB, between 1% and 30% by weight of a polyolefin as polymer type C, and between 1 and 35% by weight of a graft copolymer as polymer type CD, composed of polymer type C and of a poly(meth)acrylate as polymer type D, based in each case on the total mass of the polymer types A, B, C, AB, and CD, that the proportion of the polymer type C, inclusive of the proportions in polymer type CD, based on said total mass, is between 5 and 40% by weight, that from 10% to 40% of the carbons of the main chain of the polymer type C are tertiary carbon atoms, that component C comprises a proportion of between 20 and 70% by weight of repeating ethylene units, and its weight-average molecular weight M w is between 10 000 and 250 000, and that the solids content of the dispersion is between 25 and 70% by weight.
A syringe packaging system, comprising: a syringe barrel; a plunger rod; an oxygen absorber; a packaging member characterized in that the packaging member defining a first compartment, a second compartment, and a third compartment, the first compartment, the second compartment, and the third compartment in gaseous communication, the first compartment structured to receive the syringe barrel therein, the second compartment structured to receive the plunger rod therein, and the third compartment structured to receive the oxygen absorber therein; and the syringe packaging system further comprising a partition member associated with the packaging member, the partition member and the packaging member defining the first compartment, the second compartment, and the third compartment, wherein with the packaging member enclosing the syringe barrel, the plunger rod, and the oxygen absorber, the oxygen absorber draws oxygen from within the syringe barrel and absorbs oxygen contained within at least one of the first compartment, the second compartment, and the third compartment of the packaging member. a syringe barrel; a plunger rod; an oxygen absorber; a packaging member characterized in that the packaging member defining a first compartment, a second compartment, and a third compartment, the first compartment, the second compartment, and the third compartment in gaseous communication, the first compartment structured to receive the syringe barrel therein, the second compartment structured to receive the plunger rod therein, and the third compartment structured to receive the oxygen absorber therein; and the syringe packaging system further comprising a partition member associated with the packaging member, the partition member and the packaging member defining the first compartment, the second compartment, and the third compartment, wherein with the packaging member enclosing the syringe barrel, the plunger rod, and the oxygen absorber, the oxygen absorber draws oxygen from within the syringe barrel and absorbs oxygen contained within at least one of the first compartment, the second compartment, and the third compartment of the packaging member.
A server device comprising: a captured image information acquisition portion which acquires captured image information generated from image data of a captured image; a displayed image information acquisition portion which acquires displayed image information (253a, 253b, 253c) generated from image data of a first image displayed on a display screen; and an object recognition portion which detects a position and a posture of the first image in the captured image using the displayed image information (253a, 253b, 253c) and the captured image information and transmits information showing the position and the posture of a virtual image to a display control portion of a terminal device, and further delegates subsequent detection of a position and a posture of the first image to the terminal device after the position and the posture of the first image has been detected by the server device, wherein the display control portion displays the captured image containing the virtual image. a captured image information acquisition portion which acquires captured image information generated from image data of a captured image; a displayed image information acquisition portion which acquires displayed image information (253a, 253b, 253c) generated from image data of a first image displayed on a display screen; and an object recognition portion which detects a position and a posture of the first image in the captured image using the displayed image information (253a, 253b, 253c) and the captured image information and transmits information showing the position and the posture of a virtual image to a display control portion of a terminal device, and further delegates subsequent detection of a position and a posture of the first image to the terminal device after the position and the posture of the first image has been detected by the server device, wherein the display control portion displays the captured image containing the virtual image.
A driver circuit (200A, 200B, 300) for driving a load (240, 340), the load having a first terminal connected to a first supply voltage (V H) and a second terminal, the driver circuit comprising: a first FET (230, 330) connected in a common-source configuration having a drain connected to the second terminal of the load, a source connected to ground (205, 305), and a gate for receiving a gate drive current (I GM1); a second FET (250, 350) connected in a source-follower configuration having a drain connected to the second terminal of the load, a source connected to the gate of the first FET, and a gate; and a pre-driver (220, 320) configured to be powered by a second supply voltage and having an input for receiving a control signal (CTL 210, CTL 310) and an output connected to the gate of the second FET, wherein the pre-driver is configured to drive the second FET in accordance with the control signal, such that the gate drive current for the first FET is provided by the first supply voltage and flows through the load and through the second FET. a first FET (230, 330) connected in a common-source configuration having a drain connected to the second terminal of the load, a source connected to ground (205, 305), and a gate for receiving a gate drive current (I GM1); a second FET (250, 350) connected in a source-follower configuration having a drain connected to the second terminal of the load, a source connected to the gate of the first FET, and a gate; and a pre-driver (220, 320) configured to be powered by a second supply voltage and having an input for receiving a control signal (CTL 210, CTL 310) and an output connected to the gate of the second FET, wherein the pre-driver is configured to drive the second FET in accordance with the control signal, such that the gate drive current for the first FET is provided by the first supply voltage and flows through the load and through the second FET.
A torque vectoring device for a vehicle, comprising an electrical motor being connected to a differential mechanism via a transmission comprising a first planetary gear set and a second planetary gear set, wherein the torque vectoring device further comprises at least one control means (130, 150) for changing the torque path of the transmission between a first mode, in which the electrical motor connects only to the input shaft of the differential mechanism for hybrid drive mode, and a second mode, in which the electrical motor connects to the input shaft and to the output shaft of the differential mechanism for torque vectoring mode, wherein the electrical motor is driving the sun gear of the first planetary gear set, and wherein the input shaft of the differential mechanism is connected to the planet carrier of the first planetary gear set, wherein the first planetary gear set and the second planetary gear set are arranged coaxially with the differential mechanism, wherein the sun gear of the second planetary gear set is fixed.
An acoustic receiver (204, 300) for a downhole tool, comprising: a housing; and a sensor subassembly located within the housing, comprising: a mount; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount, wherein the isolation ring directly engages the crystal and the mount, characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment. a housing; and a sensor subassembly located within the housing, comprising: a mount; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount, wherein the isolation ring directly engages the crystal and the mount, characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment. a mount; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount, wherein the isolation ring directly engages the crystal and the mount, characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment.
A heat pump having a refrigerant circuit in which a compressor, a condenser, an expansion valve, and an evaporator are connected sequentially, comprising: evaporator refrigerant saturation temperature detecting means for detecting an evaporation temperature of said evaporator; evaporator sucked air temperature detecting means for detecting an evaporator sucked air temperature of said evaporator; compressor frequency detecting means for detecting a compressor frequency of said compressor; and first frost formation state detecting means for detecting a frost formation state of said evaporator, characterized in that said first frost formation state detecting means sets a calculation value obtained by dividing a difference between said evaporator sucked air temperature and said evaporation temperature by said compressor frequency to a characteristic amount; and detects a drop in heat exchange performance caused by a frost formation on said evaporator on the basis of said characteristic amount. evaporator refrigerant saturation temperature detecting means for detecting an evaporation temperature of said evaporator; evaporator sucked air temperature detecting means for detecting an evaporator sucked air temperature of said evaporator; compressor frequency detecting means for detecting a compressor frequency of said compressor; and first frost formation state detecting means for detecting a frost formation state of said evaporator, characterized in that said first frost formation state detecting means sets a calculation value obtained by dividing a difference between said evaporator sucked air temperature and said evaporation temperature by said compressor frequency to a characteristic amount; and detects a drop in heat exchange performance caused by a frost formation on said evaporator on the basis of said characteristic amount.
A direction detecting apparatus, being is on a supporting pole at a known position from its lower end, which said lower end indicates a measurement point, characterised in that said apparatus comprises an image pickup device with an optical axis orthogonal to an axis of said supporting pole, an arithmetic processing part, a retro-reflector and a polarization detecting unit, wherein said image pickup device is configured to acquire an image that includes a surveying instrument that emits a tracking light for which a direction is to be detected, wherein said tracking light is a polarized light rotating around an optical axis as the center and has a reference light pulse corresponding with a reference polarization direction of said polarized light, wherein said arithmetic processing part is configured to calculate a direction angle of said surveying instrument from an amount of deviation between a position of said surveying instrument in said image and an optical axis of said image pickup device and to detect a direction of a light source of said tracking light emitted toward said retro-reflector, wherein said polarization detecting unit is configured to detect a polarization direction of said tracking light by detecting respective light pulses of said tracking light, said light pulses made distinguishable from said reference light pulse and to detect a tilt of said direction detecting apparatus based on the detected polarization direction.
A substrate comprising synthetic nano-sized crystalline calcium phosphate having a specific surface area in the range of 50 m 2 /g to 300 m 2 /g in the form of a coating on a surface of the substrate, wherein the coating has a thickness of less than or equal to 100 nm.
An apparatus for calculating cardiac output of a patient undergoing veno-venous extracorporeal oxygenation through a veno-venous extracorporeal circuit, comprising: a controller; and a pump connected to the veno-venous extracorporeal circuit for generating a blood flow through the veno-venous extracorporeal circuit; characterized by an oximeter; wherein the pump is operably connected to the controller and configured to generate a first blood flow rate through the veno-venous extracorporeal circuit and a different second blood flow rate through the veno-venous extracorporeal circuit; wherein the oximeter is connected to the controller for measuring a first arterial oxygen saturation corresponding to the first blood flow rate and a second arterial oxygen saturation corresponding to the second blood flow rate; and wherein the controller is configured to calculate a cardiac output of the patient corresponding to the first measured arterial oxygen saturation, the second measured arterial oxygen saturation, the first blood flow rate and the second blood flow rate. a controller; and a pump connected to the veno-venous extracorporeal circuit for generating a blood flow through the veno-venous extracorporeal circuit; characterized by an oximeter; wherein the pump is operably connected to the controller and configured to generate a first blood flow rate through the veno-venous extracorporeal circuit and a different second blood flow rate through the veno-venous extracorporeal circuit; wherein the oximeter is connected to the controller for measuring a first arterial oxygen saturation corresponding to the first blood flow rate and a second arterial oxygen saturation corresponding to the second blood flow rate; and wherein the controller is configured to calculate a cardiac output of the patient corresponding to the first measured arterial oxygen saturation, the second measured arterial oxygen saturation, the first blood flow rate and the second blood flow rate.
A non-combustible-heating flavor inhaling article comprising: a tobacco part that has: a tobacco filler that includes a tobacco filling material and a volatile flavor; and a wrapper surrounding the tobacco filler, wherein, when a diffusion coefficient is measured by the Diffusivity Tester manufactured by the Borgwaldt company, using N 2 and CO 2 as gas and under a temperature of 22 °C and a relative humidity of 60% as measurement conditions, the diffusion coefficient of the wrapper is 0 cm/s or greater, and an upper limit of the diffusion coefficient is between 0.022 cm/s and 0.10 cm/s, wherein the tobacco filler includes 5 weight % to 30 weight% of an aerosol-generating base material with respect to a weight of the tobacco filling material. a tobacco part that has: a tobacco filler that includes a tobacco filling material and a volatile flavor; and a wrapper surrounding the tobacco filler, a tobacco filler that includes a tobacco filling material and a volatile flavor; and a wrapper surrounding the tobacco filler, wherein, when a diffusion coefficient is measured by the Diffusivity Tester manufactured by the Borgwaldt company, using N 2 and CO 2 as gas and under a temperature of 22 °C and a relative humidity of 60% as measurement conditions, the diffusion coefficient of the wrapper is 0 cm/s or greater, and an upper limit of the diffusion coefficient is between 0.022 cm/s and 0.10 cm/s, wherein the tobacco filler includes 5 weight % to 30 weight% of an aerosol-generating base material with respect to a weight of the tobacco filling material.
An integrated access backhaul, IAB, link control method, comprising: acquiring, by an IAB, that a link failure occurs between an upstream IAB of the IAB and a donor centralized unit, CU, or an upstream IAB of the IAB is executing a link migration/adjustment; and sending, by the IAB, link state indication information to the donor CU, or a child IAB, wherein the link state indication information comprises at least one of: a link identifier or a route identifier, an identifier of an IAB to which the link failure or the link migration occurs, a link failure cause or a link state type; wherein the link failure cause comprises a parent IAB link failure; and wherein the link state type comprises the link failure and the link migration. acquiring, by an IAB, that a link failure occurs between an upstream IAB of the IAB and a donor centralized unit, CU, or an upstream IAB of the IAB is executing a link migration/adjustment; and sending, by the IAB, link state indication information to the donor CU, or a child IAB, wherein the link state indication information comprises at least one of: a link identifier or a route identifier, an identifier of an IAB to which the link failure or the link migration occurs, a link failure cause or a link state type; wherein the link failure cause comprises a parent IAB link failure; and wherein the link state type comprises the link failure and the link migration.