mhurhangee/ep-ind-claims huggingface dataset:
An injection molding machine, comprising: a motor (160, 210, 350); a motion conversion mechanism (170, 220, 370) which includes a screw shaft (171, 372) which is rotated by the motor (160, 210, 350) and a screw nut (172, 373) which is screwed to the screw shaft (171, 372) and is moved forward or rearward by a rotation of the screw shaft (171, 372); and a base (120, 130, 301, 302, 303) to which the motor (160, 210, 350) and the motion conversion mechanism (170, 220, 370) are assembled, characterized in that the base (120, 130, 301, 302, 303) and a member (350, 360) assembled to the base (120, 130, 301, 302, 303) are spigot-fitted to each other, thus centering and positioning said member (350, 360) in the front-rear direction of the injection molding machine with respect to an assembly hole, and the member (350, 360) spigot-fitted to the base (120, 130, 301, 302, 303) is spigot-fitted to another member (377, 361), thus centering and positioning said other member (377, 361) in the front-rear direction of the injection molding machine with respect to the assembly hole. a motor (160, 210, 350); a motion conversion mechanism (170, 220, 370) which includes a screw shaft (171, 372) which is rotated by the motor (160, 210, 350) and a screw nut (172, 373) which is screwed to the screw shaft (171, 372) and is moved forward or rearward by a rotation of the screw shaft (171, 372); and a base (120, 130, 301, 302, 303) to which the motor (160, 210, 350) and the motion conversion mechanism (170, 220, 370) are assembled, characterized in that the base (120, 130, 301, 302, 303) and a member (350, 360) assembled to the base (120, 130, 301, 302, 303) are spigot-fitted to each other, thus centering and positioning said member (350, 360) in the front-rear direction of the injection molding machine with respect to an assembly hole, and the member (350, 360) spigot-fitted to the base (120, 130, 301, 302, 303) is spigot-fitted to another member (377, 361), thus centering and positioning said other member (377, 361) in the front-rear direction of the injection molding machine with respect to the assembly hole.
An ink comprising: a colorant; water; an organic solvent comprising a glycol ether having a solubility parameter of from 9.0 to 12.0 (cal/cm 3) 1/2; and a surfactant comprising a silicone-based surfactant (a) and a nonionic surfactant (b), wherein the nonionic surfactant (b) has a hydrophilic-lipophilic balance of from 3.0 to 7.0. a colorant; water; an organic solvent comprising a glycol ether having a solubility parameter of from 9.0 to 12.0 (cal/cm 3) 1/2; and a surfactant comprising a silicone-based surfactant (a) and a nonionic surfactant (b), wherein the nonionic surfactant (b) has a hydrophilic-lipophilic balance of from 3.0 to 7.0.
An apparatus, comprising: a cartridge comprising a base and a lid; at least two fluid lines (102; 202) located between the base and the lid of the cartridge; at least one heating element located either on the base or the lid and aligned in intimate contact with the at least two fluid lines (102; 202); at least one heat sensing element (212, 213) in intimate contact with the at least two fluid lines (102; 202), wherein the at least one heat sensing element (212, 213) is spaced downstream from the at least one heating element; a means for supplying power to the cartridge; and a processor in electrical communication with the cartridge, wherein the processor is configured to: energize the at least one heating element for a predetermined time to produce heating of the at least two fluid lines (102; 202) at a first position; energize the fluid pump for a predetermined time to pump fluid through the at least two fluid lines (102; 202); monitor the at least one heat sensing element (212, 213) to detect the heat of the fluid within the at least two fluid lines (102; 202) at a position downstream of the first position; and detecting a rise of the heat signal from the at least one heat sensing element (212, 213) after heat is applied at the first position. a cartridge comprising a base and a lid; at least two fluid lines (102; 202) located between the base and the lid of the cartridge; at least one heating element located either on the base or the lid and aligned in intimate contact with the at least two fluid lines (102; 202); at least one heat sensing element (212, 213) in intimate contact with the at least two fluid lines (102; 202), wherein the at least one heat sensing element (212, 213) is spaced downstream from the at least one heating element; a means for supplying power to the cartridge; and a processor in electrical communication with the cartridge, wherein the processor is configured to: energize the at least one heating element for a predetermined time to produce heating of the at least two fluid lines (102; 202) at a first position; energize the fluid pump for a predetermined time to pump fluid through the at least two fluid lines (102; 202); monitor the at least one heat sensing element (212, 213) to detect the heat of the fluid within the at least two fluid lines (102; 202) at a position downstream of the first position; and detecting a rise of the heat signal from the at least one heat sensing element (212, 213) after heat is applied at the first position. energize the at least one heating element for a predetermined time to produce heating of the at least two fluid lines (102; 202) at a first position; energize the fluid pump for a predetermined time to pump fluid through the at least two fluid lines (102; 202); monitor the at least one heat sensing element (212, 213) to detect the heat of the fluid within the at least two fluid lines (102; 202) at a position downstream of the first position; and detecting a rise of the heat signal from the at least one heat sensing element (212, 213) after heat is applied at the first position.
A multiple-antenna signal processing system, the system comprises: a Discrete Fourier Transform DFT processing unit, a multiple-antenna processing and resource element mapping unit, and an Inverse Fast Fourier Transform IFFT processing unit, characterized in that the system further comprises a pre-mapping processing unit, which is configured to perform a mapping on input data stream(s) based on a current multiple-antenna processing mode, so as to realize the pre-mapping processing, and outputs the pre-mapped data stream(s) to the DFT processing unit, wherein, the pre-mapping processing unit is configured to map N input data streams to M layers, both N and M are integers which are greater than or equal to 1 the multiple-antenna processing mode is divided into two cases which are diversity and multiplexing, wherein in case of diversity, N=1, and with regard to Cyclic Delay Diversity, CDD, mode, M being equal to 1, no pre-mapping processing being performed; and with regard to Frequency switch transmit diversity, FSTD, mode, M being equal to the number of the antennas, in case of multiplexing, N>1, and N being equal to M in case that the number of the antennas is equal to the number of the input data streams to be transmitted, and combining the diversity and the multiplexing and determining whether N equals to M based on the mode adopted by the diversity in case that the input data streams is less than the number of the antennas.
Method for the determination of film-forming amines in liquids by adding a reacting agent to the amine to form a colored complex to be measured by photometric method, wherein the reacting agent is a component of the Xanthene Group according to the following general formula: wherein R 1 = H or a halogen, and R 2 = H or a halogen, characterized in that for the reaction the pH of the liquid is lowered by using hydrochloric acid.
An elastic locking mechanism for an electronic cigarette including a liquid storage assembly provided with an opening end, comprising: an upper cover removably arranged on the opening end of the liquid storage assembly; a screw cap sleeved outside the upper cover; an upper engagement component (30, 60) arranged on the screw cap; a lower engagement component (40, 70) arranged on the upper cover; and an elastic element (50, 818) mounted between the screw cap and the upper cover to prevent the upper engagement component (30, 60) and the lower engagement component (40, 70) from engaging with each other, wherein when the screw cap is pressed down or pulled up, the elastic element is compressed or stretched so that the upper engagement component (30, 60) engages with the lower engagement component (40, 70), and the upper cover is driven to rotate together with the screw cap by rotating the screw cap, so as to open or close the opening end of the liquid storage assembly, characterized in that the elastic locking mechanism further comprises a ventilation tube and an unlocking component, wherein the upper cover and the lower engagement component (40, 70) are integrated to form the ventilation tube, the screw cap and the upper engagement component (30, 60) are integrated to form the unlocking component, the ventilation tube is provided with a stop protrusion, and the unlocking component is provided with a corresponding stop groove, the elastic element is provided with a blocking groove matching the stop protrusion such that the elastic element is sleeved outside the ventilation tube. an upper cover removably arranged on the opening end of the liquid storage assembly; a screw cap sleeved outside the upper cover; an upper engagement component (30, 60) arranged on the screw cap; a lower engagement component (40, 70) arranged on the upper cover; and an elastic element (50, 818) mounted between the screw cap and the upper cover to prevent the upper engagement component (30, 60) and the lower engagement component (40, 70) from engaging with each other, wherein when the screw cap is pressed down or pulled up, the elastic element is compressed or stretched so that the upper engagement component (30, 60) engages with the lower engagement component (40, 70), and the upper cover is driven to rotate together with the screw cap by rotating the screw cap, so as to open or close the opening end of the liquid storage assembly, characterized in that the elastic locking mechanism further comprises a ventilation tube and an unlocking component, wherein the upper cover and the lower engagement component (40, 70) are integrated to form the ventilation tube, the screw cap and the upper engagement component (30, 60) are integrated to form the unlocking component, the ventilation tube is provided with a stop protrusion, and the unlocking component is provided with a corresponding stop groove, the elastic element is provided with a blocking groove matching the stop protrusion such that the elastic element is sleeved outside the ventilation tube.
An ultrasonic surgical instrument comprising: a housing (102, 112, 302, 1402); an ultrasonic transducer assembly (114, 314, 530, 1404) rotatably supported within said housing and communicating with a source of ultrasonic electrical signals; a motor (190, 410, 510, 1440) within said housing and communicating with a source of motor drive signals, said motor coupled to said ultrasonic transducer assembly for applying rotational motion thereto; a horn (124, 324, 1406) coupled to said ultrasonic transducer assembly; a hollow outer sheath coupled to said housing and having a distal tip portion with at least one cutting edge formed thereon; and a blade coupled to said horn and having a tissue-cutting distal end (700, 760, 810), said blade rotatably supported within said outer sheath such that said tissue cutting distal end is biased into cutting engagement with at least said at least one cutting edge on said distal tip portion of said hollow outer sheath; characterised in that said distal tissue cutting end of said blade has a curved blade tip portion that is rotatably received within a tip cavity formed in said distal tip portion of said hollow outer sheath. a housing (102, 112, 302, 1402); an ultrasonic transducer assembly (114, 314, 530, 1404) rotatably supported within said housing and communicating with a source of ultrasonic electrical signals; a motor (190, 410, 510, 1440) within said housing and communicating with a source of motor drive signals, said motor coupled to said ultrasonic transducer assembly for applying rotational motion thereto; a horn (124, 324, 1406) coupled to said ultrasonic transducer assembly; a hollow outer sheath coupled to said housing and having a distal tip portion with at least one cutting edge formed thereon; and a blade coupled to said horn and having a tissue-cutting distal end (700, 760, 810), said blade rotatably supported within said outer sheath such that said tissue cutting distal end is biased into cutting engagement with at least said at least one cutting edge on said distal tip portion of said hollow outer sheath; characterised in that said distal tissue cutting end of said blade has a curved blade tip portion that is rotatably received within a tip cavity formed in said distal tip portion of said hollow outer sheath.
Use of a single- or multilayer, biaxially oriented, white polyester film, which a) contains barium sulfate in a concentration of from 5 to 25 % by weight (based on the weight of the film), b) contains titanium dioxide in an amount of at least 1.0 % by weight (based on the weight of the film), and c) is provided with an adhesion promoter on one surface, wherein the film does not contain additives of optical brighteners, which reflect at λ=400 nm ≥ 95 %, for production of cards, in which UV-detectable security features are recognizable. a) contains barium sulfate in a concentration of from 5 to 25 % by weight (based on the weight of the film), b) contains titanium dioxide in an amount of at least 1.0 % by weight (based on the weight of the film), and c) is provided with an adhesion promoter on one surface,
A method comprising: receiving by a device-to-device registration server function apparatus a device-to-device registration request originated by a first terminal apparatus, the first terminal apparatus being located within a device-to-device registration area; and registering, by device-to-device registration server function circuitry, the first terminal apparatus based at least in part upon the device-to-device registration request; wherein the device-to-device registration request comprises an indication of a device-to-device user identifier for the first terminal apparatus and a network-allocated identifier for the first terminal apparatus, and wherein registering the first terminal apparatus comprises authenticating the first terminal apparatus based at least in part on the network-allocated identifier. receiving by a device-to-device registration server function apparatus a device-to-device registration request originated by a first terminal apparatus, the first terminal apparatus being located within a device-to-device registration area; and registering, by device-to-device registration server function circuitry, the first terminal apparatus based at least in part upon the device-to-device registration request; wherein the device-to-device registration request comprises an indication of a device-to-device user identifier for the first terminal apparatus and a network-allocated identifier for the first terminal apparatus, and wherein registering the first terminal apparatus comprises authenticating the first terminal apparatus based at least in part on the network-allocated identifier.
Hydraulic swash block positioning system for positioning a swash block such as a swash block that rotates around a swash block axis to a swash block position in a housing of a hydraulic device such as a pump to set a variable displacement, the hydraulic device comprising a rotor with pistons and piston chambers with a variable volume that during rotor rotation alternating connect to a high oil pressure source (54, 104) and a low oil pressure source (53, 103), the positioning system comprising between the housing and the swash block a positioning cylinder with a positioning piston forming a positioning chamber for setting an average value of the swash block position and a control valve (52, 105) connecting the high oil pressure source (54, 104) with the positioning chamber through a feeding line (20, 112) characterized in that the control valve is a hydraulic servo valve which is mounted in the swash block.
A method of controlling an oven, the oven including a broil heater heating food to be cooked in a cavity, a bake heater, a plurality of convection heaters (210, 310), and a plurality of fans (220, 320) blowing heat of each of the convection heaters (210, 310) into the cavity, the method being characterized by: operating the broil heater, a first convection heater, and a first fan during a first reference time and then stopping the broil heater, the first convection heater, and the first fan when the first reference time elapses; and operating the bake heater, a second convection heater, and a second fan during a second reference time, wherein when the broil heater, the first convection heater, and the first fan operate, the bake heater, the second convection heater, and the second fan are not operated. operating the broil heater, a first convection heater, and a first fan during a first reference time and then stopping the broil heater, the first convection heater, and the first fan when the first reference time elapses; and operating the bake heater, a second convection heater, and a second fan during a second reference time,
A system, comprising: a tractor comprising a lifting hitch; an implement comprising an implement frame carried by the lifting hitch, characterized by the implement frame having an integrated elongate toolbar; at least one row unit coupled to the toolbar by a parallel linkage; a sensor (142, 144) configured to sense a position of the at least one row unit relative to ground; and a control system configured to receive a signal related to the sensed position of the at least one row unit relative to the ground and cause the lifting hitch to raise or lower at least a portion of the implement frame connected to the lifting hitch relative to the tractor based at least in part on the signal. a tractor comprising a lifting hitch; an implement comprising an implement frame carried by the lifting hitch, characterized by the implement frame having an integrated elongate toolbar; at least one row unit coupled to the toolbar by a parallel linkage; a sensor (142, 144) configured to sense a position of the at least one row unit relative to ground; and a control system configured to receive a signal related to the sensed position of the at least one row unit relative to the ground and cause the lifting hitch to raise or lower at least a portion of the implement frame connected to the lifting hitch relative to the tractor based at least in part on the signal.
A system comprising: an aircraft component; a port disposed within the aircraft component; a static pressure sensor disposed within the port and configured to provide primary pressure data in response to at least environmental air pressure and an acoustic disturbance; characterized by an acoustic sensor configured to provide acoustic data in response to the acoustic disturbance, the acoustic sensor being disposed within 60.96 centimeters of the port in a manner to measure the acoustic disturbance of the environment around the port and the static pressure sensor; and a processor communicatively coupled to the static pressure sensor and the acoustic sensor and configured to determine corrected static pressure data using the provided primary pressure data and the provided acoustic data. an aircraft component; a port disposed within the aircraft component; a static pressure sensor disposed within the port and configured to provide primary pressure data in response to at least environmental air pressure and an acoustic disturbance; characterized by an acoustic sensor configured to provide acoustic data in response to the acoustic disturbance, the acoustic sensor being disposed within 60.96 centimeters of the port in a manner to measure the acoustic disturbance of the environment around the port and the static pressure sensor; and a processor communicatively coupled to the static pressure sensor and the acoustic sensor and configured to determine corrected static pressure data using the provided primary pressure data and the provided acoustic data.
A semiconductor device comprising: a semiconductor substrate; an insulating layer formed on the semiconductor substrate and made of silicon oxide; a semiconductor layer formed on the insulating layer; and an interlayer insulating film formed on the semiconductor layer, wherein an optical waveguide constituted of the semiconductor layer is formed, the insulating layer between a lower surface of the optical waveguide and the semiconductor substrate has been removed, and both side surfaces and the lower surface of the optical waveguide are covered with air. a semiconductor substrate; an insulating layer formed on the semiconductor substrate and made of silicon oxide; a semiconductor layer formed on the insulating layer; and an interlayer insulating film formed on the semiconductor layer, wherein an optical waveguide constituted of the semiconductor layer is formed, the insulating layer between a lower surface of the optical waveguide and the semiconductor substrate has been removed, and both side surfaces and the lower surface of the optical waveguide are covered with air.
Process for separating a composition comprising polyamide, polyester and at least one further additive, comprising the steps of: - providing the composition, the composition having a density of 50-500 gr/dm 3, - adding a branched or un-branched alcohol to the composition therewith forming a mixture, the alcohol having a boiling point above 150 °C (at 100 kPa), - heating the mixture to a temperature above 150 °C under reflux until polyamide is dissolved, while the polyester remains unaffected, therewith forming a slurry; - cooling the slurry comprising diluting the slurry by addition of hot water with a temperature of at least 80°C, during which polyamide is precipitated to particles; - filtering the slurry over a first filter with a mesh larger than 0.2 μm therewith forming a filtrate and a residue, wherein the residue comprises the polyester and the filtrate comprises the polyamide particles, - filtering the polyamide particles from the filtrate over a second filter to recover the polyamide, and - recovery of the polyester for further processing for depolymerisation of the polyester. - providing the composition, the composition having a density of 50-500 gr/dm 3, - adding a branched or un-branched alcohol to the composition therewith forming a mixture, the alcohol having a boiling point above 150 °C (at 100 kPa), - heating the mixture to a temperature above 150 °C under reflux until polyamide is dissolved, while the polyester remains unaffected, therewith forming a slurry; - cooling the slurry comprising diluting the slurry by addition of hot water with a temperature of at least 80°C, during which polyamide is precipitated to particles; - filtering the slurry over a first filter with a mesh larger than 0.2 μm therewith forming a filtrate and a residue, wherein the residue comprises the polyester and the filtrate comprises the polyamide particles, - filtering the polyamide particles from the filtrate over a second filter to recover the polyamide, and - recovery of the polyester for further processing for depolymerisation of the polyester.