mhurhangee/patent-ind-claim-en huggingface dataset:
An illuminable ball including a translucent spherical hollow casing in which is housed illumination means comprising at least one LED and control means arranged to illuminate said at least one LED; and cover means providing access to the illumination means inside said hollow casing; wherein said cover means is attached to said casing by a low reverse torque closure characterised in that the low reverse torque closure includes an inner latch formed by an internally screw threaded cylindrical first member which is concentrically retained to be captive within an outer latch formed by a cylindrical second member having a base upon which are formed first ratchet teeth abutting with ramp means on a facing wall of the first member when the inner latch is turned in a first direction to rotate the inner latch into the outer latch, causing the internal screw threads on the cylindrical first member to cooperate with mating threads on the cover means to securely close said hollow casing; and the first ratchet teeth sliding up and over the ramp means with negligible back ratchet torque when the inner latch is turned in a second direction opposite to said first direction without the application of a downforce by virtue of at least one resilient spring member disposed in the base of the second member so as to form a space between the first and second members until a downward force against the at least one spring member is applied on the inner latch and a torque simultaneously applied on the inner latch causes the first ratchet teeth to engage with second ratchet teeth on the first member and the inner latch is rotated in a second direction to remove said cover means.
A welding system , comprising: - a welding power supply configured to provide a welding power for a welding application through a weld cable , wherein the welding power supply comprises: - weld cable communications circuitry comprising: - a receiver configured to receive data from the weld cable , to monitor the weld cable for frequency spurs or interfering signals, and to monitor network capacity; and - a transmitter configured to transmit the data across the weld cable , - a processor communicatively coupled to the transmitter , characterized in that the processor is configured to select at least one physical layer transmission scheme for data transmission based on the frequency spurs or interfering signals and the network capacity, and wherein the weld cable communications circuitry comprises a media access controller configured to determine a number of welders sharing a common weld return circuit and a cost of latency for accessing an open communications link along the weld cable based on a demand indication from the transmitter . - a welding power supply configured to provide a welding power for a welding application through a weld cable , wherein the welding power supply comprises: - weld cable communications circuitry comprising: - a receiver configured to receive data from the weld cable , to monitor the weld cable for frequency spurs or interfering signals, and to monitor network capacity; and - a transmitter configured to transmit the data across the weld cable , - a processor communicatively coupled to the transmitter , - weld cable communications circuitry comprising: - a receiver configured to receive data from the weld cable , to monitor the weld cable for frequency spurs or interfering signals, and to monitor network capacity; and - a transmitter configured to transmit the data across the weld cable , - a processor communicatively coupled to the transmitter , - a receiver configured to receive data from the weld cable , to monitor the weld cable for frequency spurs or interfering signals, and to monitor network capacity; and - a transmitter configured to transmit the data across the weld cable , - a processor communicatively coupled to the transmitter ,
A method of making an article having a substance deposited thereon in a predetermined pattern, said method comprising: providing a non-contacting substance deposition device ; providing at least one three-dimensional article which has a surface; providing a conveyor to transport the article past said substance deposition device; wherein the method further comprises: creating a re-circulating relative motion between the article and the device, such that the article passes by the device at least two times; and during the relative motion, depositing a substance onto at least a portion of the surface of the article by using the device, wherein in each pass, the deposition device deposits only a portion of the total predetermined pattern to be formed, and the article is passed by the device at least twice to form the predetermined pattern; and wherein said substance comprises droplets of ink, and said droplets of ink are deposited in a matrix on said article that is greater than 1,200 drops per inch (472 drops per cm) in at least one direction, or ranges from 1,080 to 1,440 drops per inch (425 to 567 drops per cm) in at least one direction; and wherein the three-dimensional article is selected from the group consisting of hollow plastic containers; caps, for example bottle caps; closures; bottles; bottle preforms; boxes; cans; cartons; containers; laundry dosing balls; razors; razor blade heads; razor blade handles; sprayer triggers; tubs; tubes, for example tampon tubes; deodorant stick containers; and primary packages for consumer products, including disposable consumer products. providing a non-contacting substance deposition device ; providing at least one three-dimensional article which has a surface; providing a conveyor to transport the article past said substance deposition device; creating a re-circulating relative motion between the article and the device, such that the article passes by the device at least two times; and during the relative motion, depositing a substance onto at least a portion of the surface of the article by using the device, wherein in each pass, the deposition device deposits only a portion of the total predetermined pattern to be formed, and the article is passed by the device at least twice to form the predetermined pattern; and wherein said substance comprises droplets of ink, and said droplets of ink are deposited in a matrix on said article that is greater than 1,200 drops per inch (472 drops per cm) in at least one direction, or ranges from 1,080 to 1,440 drops per inch (425 to 567 drops per cm) in at least one direction; and wherein the three-dimensional article is selected from the group consisting of hollow plastic containers; caps, for example bottle caps; closures; bottles; bottle preforms; boxes; cans; cartons; containers; laundry dosing balls; razors; razor blade heads; razor blade handles; sprayer triggers; tubs; tubes, for example tampon tubes; deodorant stick containers; and primary packages for consumer products, including disposable consumer products.
A pharmaceutical formulation comprising: (i) domperidone or a pharmaceutically acceptable salt thereof, a glyceryl stearate, and a medium chain triglyceride; or (ii) domperidone or a pharmaceutically acceptable salt thereof, a stearoyl polyoxyl glyceride, a nonionic poly(ethylene oxide) polymer, and a medium chain triglyceride; or (iii) domperidone or a pharmaceutically acceptable salt thereof, a nonionic poly(ethylene oxide) polymer, and a polyethylene glycol. (i) domperidone or a pharmaceutically acceptable salt thereof, a glyceryl stearate, and a medium chain triglyceride; or (ii) domperidone or a pharmaceutically acceptable salt thereof, a stearoyl polyoxyl glyceride, a nonionic poly(ethylene oxide) polymer, and a medium chain triglyceride; or (iii) domperidone or a pharmaceutically acceptable salt thereof, a nonionic poly(ethylene oxide) polymer, and a polyethylene glycol.
A process for preparing -9,11-hexadecadienal of the following formula : said process comprising at least steps of: conducting a nucleophilic substitution reaction between an -8,10-pentadecadienyl magnesium halide derived from an -1-halo-8,10-pentadecadiene of the following general formula : wherein X is a halogen atom, and an orthoformate ester of the following general formula : wherein R may be the same or different at each occurrence and is an alkyl group having 1 to 6 carbon atoms, to thereby prepare a -1,1-dialkoxy-9,11-hexadecadiene of the general formula : wherein R may be the same or different at each occurrence and is an alkyl group having 1 to 6 carbon atoms; and hydrolyzing the -1,1-dialkoxy-9,11-hexadecadiene to obtain -9,11-hexadecadienal of the formula shown above. conducting a nucleophilic substitution reaction between an -8,10-pentadecadienyl magnesium halide derived from an -1-halo-8,10-pentadecadiene of the following general formula : wherein X is a halogen atom, and an orthoformate ester of the following general formula : wherein R may be the same or different at each occurrence and is an alkyl group having 1 to 6 carbon atoms, to thereby prepare a -1,1-dialkoxy-9,11-hexadecadiene of the general formula : wherein R may be the same or different at each occurrence and is an alkyl group having 1 to 6 carbon atoms; and hydrolyzing the -1,1-dialkoxy-9,11-hexadecadiene to obtain -9,11-hexadecadienal of the formula shown above.
A coated detergent particle having perpendicular dimensions x, y and z, wherein x is from 0.5 to 2 mm, y is from 2 to 8mm, and z is from 2 to 8 mm, wherein the particle comprises: (i) from 20 to 39 wt % of a surfactant selected from: anionic and non-ionic surfactants; (ii) from 10 to 40 wt % of inorganic salts selected from: sodium carbonate and/or sodium sulphate of which at least 5 wt % of the inorganic salt is sodium carbonate; and, (iii) from 0.0001 to 0.5 wt % pigment, wherein the pigment is selected: from organic and inorganic pigments, and wherein the inorganic salts and the pigment are present on the detergent particle as a coating and the surfactant is present as a core. (i) from 20 to 39 wt % of a surfactant selected from: anionic and non-ionic surfactants; (ii) from 10 to 40 wt % of inorganic salts selected from: sodium carbonate and/or sodium sulphate of which at least 5 wt % of the inorganic salt is sodium carbonate; and, (iii) from 0.0001 to 0.5 wt % pigment, wherein the pigment is selected: from organic and inorganic pigments, and
A traverse hardening device which performs traverse hardening on a shaft-like body which has a main body part, and a small diameter part provided in an intermediate section of the main body part in an axial direction and having an outer diameter smaller than that of the main body part, comprising: a primary coil having an inner diameter larger than an outer diameter of the main body part and having a solenoidal shape; an electric current supply device which supplies a high-frequency electric current to the primary coil; a uniaxial actuator configured to enable positioning of the primary coil in the axial direction while supporting the primary coil so that the shaft-like body passes inside the primary coil in a radial direction; and a control device which controls the electric current supply device and the uniaxial actuator, wherein, when a horizontal axis represents a radial direction of the primary coil and a vertical axis represents a direction orthogonal to the radial direction in a plane orthogonal to a circumferential direction of the primary coil, a cross-sectional image of the primary coil which appears on the plane appears in a form of segmentations by a matrix of m pieces vertically×n pieces horizontally, wherein m and n are each an integer of 2 or more than 2. a primary coil having an inner diameter larger than an outer diameter of the main body part and having a solenoidal shape; an electric current supply device which supplies a high-frequency electric current to the primary coil; a uniaxial actuator configured to enable positioning of the primary coil in the axial direction while supporting the primary coil so that the shaft-like body passes inside the primary coil in a radial direction; and a control device which controls the electric current supply device and the uniaxial actuator, wherein, when a horizontal axis represents a radial direction of the primary coil and a vertical axis represents a direction orthogonal to the radial direction in a plane orthogonal to a circumferential direction of the primary coil, a cross-sectional image of the primary coil which appears on the plane appears in a form of segmentations by a matrix of m pieces vertically×n pieces horizontally, wherein m and n are each an integer of 2 or more than 2.
A tankless water heater , comprising: - a flow channel with a cold-water inlet pipe, a heating unit with a heating element configured to heat water flowing through the heating unit and a hot-water outlet pipe, and - a control unit configured to control the tankless water heater , characterized in that the control unit is configured to receive a power limitation signal of an external facility management system and to control a heating output of the heating element depending on the power limitation signal. - a flow channel with a cold-water inlet pipe, a heating unit with a heating element configured to heat water flowing through the heating unit and a hot-water outlet pipe, and - a control unit configured to control the tankless water heater ,
An electrical device of a network of electrical devices, comprising: an electrical receptacle configured to couple to a complementary electrical connector; and an auto-commissioning device comprising a transceiver and an auto-commissioning engine , wherein the transceiver is configured to communicate with an adjacent transceiver of an adjacent electrical device when the electrical receptacle is coupled to the complementary electrical connector, wherein the auto-commissioning engine , based on communication between the transceiver and the adjacent transceiver, is configured to identify and commission the electrical device and the adjacent electrical device while the electrical receptacle is coupled to the complementary electrical connector, wherein the auto-commissioning device is embedded in a coupling between the electrical receptacle and the complementary electrical connector. an electrical receptacle configured to couple to a complementary electrical connector; and an auto-commissioning device comprising a transceiver and an auto-commissioning engine , wherein the transceiver is configured to communicate with an adjacent transceiver of an adjacent electrical device when the electrical receptacle is coupled to the complementary electrical connector, wherein the auto-commissioning engine , based on communication between the transceiver and the adjacent transceiver, is configured to identify and commission the electrical device and the adjacent electrical device while the electrical receptacle is coupled to the complementary electrical connector, wherein the auto-commissioning device is embedded in a coupling between the electrical receptacle and the complementary electrical connector.
A system comprising a shaft and a hub , in particular an electric motor or a vacuum pump comprising an electric motor, wherein the shaft and the hub have corresponding centering surfaces , which together form a first centering means, in at least one first peripheral section; wherein, in at least one second peripheral section which is different from the first peripheral section, at least one entrainer is provided at the hub and at least one recess corresponding to the entrainer is provided at the shaft , or vice versa, and the entrainer engages into the recess for torque transmission; and wherein the entrainer comprises two side walls which are spaced apart from one another in the peripheral direction, which cooperate with corresponding inner walls of the recess and which, together with these inner walls , form a second centering means spaced apart from the first centering means in the peripheral direction, characterized in that the second centering means has an interference fit.
A method for blasting comprising: identifying an initial blast pattern criteria. recording a high speed optical video of a blast conducted in accordance with the initial blast pattern criteria; correlating the high speed optical video with one or more characteristics of a region to be blasted using a machine learning model that comprises a plurality of measurements associated with the characteristics of the region to be blasted; determining , by the machine learning model and based on the correlation, an improved blast pattern criteria; and generating for display on a user computing device, data indicating improved blast pattern criteria. identifying an initial blast pattern criteria. recording a high speed optical video of a blast conducted in accordance with the initial blast pattern criteria; correlating the high speed optical video with one or more characteristics of a region to be blasted using a machine learning model that comprises a plurality of measurements associated with the characteristics of the region to be blasted; determining , by the machine learning model and based on the correlation, an improved blast pattern criteria; and generating for display on a user computing device, data indicating improved blast pattern criteria.
A method for wireless communication in a wireless communications system, comprising: transmitting a request to send, RTS, message with a first transmit power to a receiving device over a sidelink connection with the receiving device; receiving a clear to send, CTS, message from the receiving device based at least in part on transmitting the RTS message , wherein the CTS message comprises an indication of a priority of a data transmission; and determining to refrain from using the first transmit power for a data transmission; identifying a second transmit power, which is different from the first transmit power, for the data transmission based at least in part on the received the CTS message comprising the indication of a priority of a data transmission; and transmitting the data transmission with the second transmit power to the receiving device over the sidelink connection with the receiving device. transmitting a request to send, RTS, message with a first transmit power to a receiving device over a sidelink connection with the receiving device; receiving a clear to send, CTS, message from the receiving device based at least in part on transmitting the RTS message , wherein the CTS message comprises an indication of a priority of a data transmission; and determining to refrain from using the first transmit power for a data transmission; identifying a second transmit power, which is different from the first transmit power, for the data transmission based at least in part on the received the CTS message comprising the indication of a priority of a data transmission; and transmitting the data transmission with the second transmit power to the receiving device over the sidelink connection with the receiving device.
Process for the preparation of moringa sprouts (Moringa oleifera Lam.) comprising the following steps: a) selection of moringa seeds; b) seed preparation: optional dehusking of seeds; washing and disinfection of seeds; c) germination; d) growth under controlled soilless conditions and without nutrient solutions; e) harvesting of aerial parts and residues of seeds and roots. a) selection of moringa seeds; b) seed preparation: optional dehusking of seeds; washing and disinfection of seeds; c) germination; d) growth under controlled soilless conditions and without nutrient solutions; e) harvesting of aerial parts and residues of seeds and roots.
A method for forming an electronic circuit on a two-shot injection molded plastic substrate , comprising: using a two-shot injection molding to form a first shot and a second shot of the two-shot injection molded plastic substrate, each shot being a separate plastic part; laser etching at least a portion of the second shot of the two-shot injection molded plastic substrate ; activating and laser selective gloss-plating the laser-etched portion of the second shot of the molded plastic substrate to form one or more electrically conductive traces; placing at least two electrically conductive pads (302A-302C, 402) at predetermined positions along the one or more electrically conductive traces such that an amount of surface area contact between the at least two conductive pads (302A-302C, 402) and the two-shot injection molded plastic substrate is maximized ; and surface mounting an electrical component to the at least two electrically conductive pads (302A-302C, 402) using an electrically conductive bonding material ; and wherein the second-shot of the two-shot injection molded plastic substrate having thereon the surface mounted electrical component is supported via the first shot of the two-shot injection molded plastic substrate , and wherein the first shot of the two-shot injection molded plastic substrate is formed of non-platable polycarbonate. using a two-shot injection molding to form a first shot and a second shot of the two-shot injection molded plastic substrate, each shot being a separate plastic part; laser etching at least a portion of the second shot of the two-shot injection molded plastic substrate ; activating and laser selective gloss-plating the laser-etched portion of the second shot of the molded plastic substrate to form one or more electrically conductive traces; placing at least two electrically conductive pads (302A-302C, 402) at predetermined positions along the one or more electrically conductive traces such that an amount of surface area contact between the at least two conductive pads (302A-302C, 402) and the two-shot injection molded plastic substrate is maximized ; and surface mounting an electrical component to the at least two electrically conductive pads (302A-302C, 402) using an electrically conductive bonding material ; and wherein the second-shot of the two-shot injection molded plastic substrate having thereon the surface mounted electrical component is supported via the first shot of the two-shot injection molded plastic substrate , and wherein the first shot of the two-shot injection molded plastic substrate is formed of non-platable polycarbonate.