mhurhangee/patent-ind-claim-en huggingface dataset:
Ink jet printing ink composition comprising the following components: (a) 60 - 84.5 wt.-% of an organic solvent or a mixture of organic solvents, (b) 0.5 - 5 wt.-% of a binder, wherein the binder comprises ethyl cellulose in an amount of a range of 85 to 100 wt.-%, based on the total amount of the binder, (c) 15 - 25 wt.-% of silver particles having a d 50 -value in a range of 130 nm to 800 nm, (d) optionally antioxidizing agents, (e) optionally a dispersing agent for the silver particles different from binder (b), wherein all amounts are referred to the total amount of the ink jet printing ink composition, if not defined otherwise. (a) 60 - 84.5 wt.-% of an organic solvent or a mixture of organic solvents, (b) 0.5 - 5 wt.-% of a binder, wherein the binder comprises ethyl cellulose in an amount of a range of 85 to 100 wt.-%, based on the total amount of the binder, (c) 15 - 25 wt.-% of silver particles having a d 50 -value in a range of 130 nm to 800 nm, (d) optionally antioxidizing agents, (e) optionally a dispersing agent for the silver particles different from binder (b),
An optical isolator comprising: a semiconductor substrate ; an optical attenuator and an optical amplifier provided on the semiconductor substrate; an input optical waveguide connected to the optical attenuator; and an output optical waveguide connected to the optical amplifier, wherein the optical isolator is configured so that the optical amplifier operates in the gain saturation regime so that said amplifier exhibits gain saturation characteristics and light experiences gain saturation when traversing said amplifier such that a gain of the optical amplifier decreases when an intensity of light incident on the optical amplifier increases, wherein first input light incident on the optical attenuator through the input optical waveguide is output as first output light through the output optical waveguide, and second input light incident on the optical amplifier through the output optical waveguide is output as second output light through the input optical waveguide, and wherein when an intensity of the first input light and an intensity of the second input light are equal, and each is above a threshold for which it can experience gain saturation in the optical amplifier, an intensity of the first output light is greater than an intensity of the second output light. a semiconductor substrate ; an optical attenuator and an optical amplifier provided on the semiconductor substrate; an input optical waveguide connected to the optical attenuator; and an output optical waveguide connected to the optical amplifier, wherein the optical isolator is configured so that the optical amplifier operates in the gain saturation regime so that said amplifier exhibits gain saturation characteristics and light experiences gain saturation when traversing said amplifier such that a gain of the optical amplifier decreases when an intensity of light incident on the optical amplifier increases, wherein first input light incident on the optical attenuator through the input optical waveguide is output as first output light through the output optical waveguide, and second input light incident on the optical amplifier through the output optical waveguide is output as second output light through the input optical waveguide, and wherein when an intensity of the first input light and an intensity of the second input light are equal, and each is above a threshold for which it can experience gain saturation in the optical amplifier, an intensity of the first output light is greater than an intensity of the second output light.
A hot melt adhesive composition comprising: a.) from 40 % to 85 % by weight of an ethylene copolymer derived from ethylene and a co-monomer selected from the group consisting of vinyl acetate, alkyl acrylate, alkyl methacrylate, and combinations thereof, b.) no greater than 27 % by weight of a tackifying agent, and c.) from 15 % to 35 % by weight of a synthetic wax; wherein the ethylene copolymer has a melt index (190°C, 2.16 kgs) of at least 450 g/10 min and a comonomer content of no greater than 27 % by weight, said hot melt adhesive composition having a viscosity at 177°C of no greater than 2 Pas (2000 cps). a.) from 40 % to 85 % by weight of an ethylene copolymer derived from ethylene and a co-monomer selected from the group consisting of vinyl acetate, alkyl acrylate, alkyl methacrylate, and combinations thereof, b.) no greater than 27 % by weight of a tackifying agent, and c.) from 15 % to 35 % by weight of a synthetic wax; wherein the ethylene copolymer has a melt index (190°C, 2.16 kgs) of at least 450 g/10 min and a comonomer content of no greater than 27 % by weight, said hot melt adhesive composition having a viscosity at 177°C of no greater than 2 Pas (2000 cps).
A test system for testing a LIDAR device , comprising - a controller for generating LIDAR information regarding an artificial LIDAR object based on a real object to be simulated for a test operation, wherein the LIDAR information comprises at least one piece of two-dimensional outline in-formation and one piece of depth information regarding a virtual distance of the artificial LIDAR object; - a LIDAR image generation device for generating the artificial LIDAR object based on the LIDAR information; and comprising - a LIDAR projection device ; characterized in that - the LIDAR projection device is configured to project the artificial LIDAR object onto a projection surface ; - a video image generation device is provided for generating a visible video image of at least one real object on the projection surface ; and - the controller is configured to coordinate the generation of the video image and the generation of an IR image corresponding to the artificial LIDAR object in such a manner that the video image and the IR image are superimposed by the controller in such a manner that, in the resulting overall image, the displayed real object is superimposed on the LIDAR object. - a controller for generating LIDAR information regarding an artificial LIDAR object based on a real object to be simulated for a test operation, wherein the LIDAR information comprises at least one piece of two-dimensional outline in-formation and one piece of depth information regarding a virtual distance of the artificial LIDAR object; - a LIDAR image generation device for generating the artificial LIDAR object based on the LIDAR information; and comprising - a LIDAR projection device ; - the LIDAR projection device is configured to project the artificial LIDAR object onto a projection surface ; - a video image generation device is provided for generating a visible video image of at least one real object on the projection surface ; and - the controller is configured to coordinate the generation of the video image and the generation of an IR image corresponding to the artificial LIDAR object in such a manner that the video image and the IR image are superimposed by the controller in such a manner that, in the resulting overall image, the displayed real object is superimposed on the LIDAR object.
A rotor having multiple poles and comprising at each pole: an end winding support forming a channel; a bus bar disposed in the channel; and edge-wound coils disposed to extend around the end-winding support and the bus bar, the edge-wound coils being stacked radially and comprising an inner diameter coil routed to an adjacent pole and brazed to an inner diameter coil of the adjacent pole and an outer diameter coil brazed to the bus bar. an end winding support forming a channel; a bus bar disposed in the channel; and edge-wound coils disposed to extend around the end-winding support and the bus bar, the edge-wound coils being stacked radially and comprising an inner diameter coil routed to an adjacent pole and brazed to an inner diameter coil of the adjacent pole and an outer diameter coil brazed to the bus bar.
A handle for razor that is made of a composition comprising: a) from 60 to 95% by weight of a mixture of polylactic acid (PLA) and a bioplastic polymer chosen in the group consisting of polybutylene adipate terephtalate (PBAT), bio-polyethylene (bio-PE), and polybutylene succinate (PBS), wherein the weight ratio polylactic acid/bioplastic polymer ranges from 60/40 to 90/10, and b) from 5 to 40% by weight of mineral fillers chosen in the group consisting of calcium carbonate and shells of shellfish, the weight % being relative to the total weight of the handle for razor. a) from 60 to 95% by weight of a mixture of polylactic acid (PLA) and a bioplastic polymer chosen in the group consisting of polybutylene adipate terephtalate (PBAT), bio-polyethylene (bio-PE), and polybutylene succinate (PBS), wherein the weight ratio polylactic acid/bioplastic polymer ranges from 60/40 to 90/10, and b) from 5 to 40% by weight of mineral fillers chosen in the group consisting of calcium carbonate and shells of shellfish,
A method for securing communications with enhanced media platforms, the method comprising: Communicating, by an enhanced media platform, authentication credentials to an internal security component in a trusted location, wherein the enhanced media platform is implemented in a remote datacenter; receiving, by the enhanced media platform, a first portion of validation credentials from the internal security component, wherein the validation credentials comprise the first portion and a second portion of the validation credentials; authenticating, by the enhanced media platform, running in the remote datacenter based at least on the first portion of the validation credentials; and establishing, by the enhanced media platform, a bidirectional trust with the remote datacenter location using the second portion of the validation credentials, wherein the bidirectional trust supports secure communications with the remote datacenter. Communicating, by an enhanced media platform, authentication credentials to an internal security component in a trusted location, wherein the enhanced media platform is implemented in a remote datacenter; receiving, by the enhanced media platform, a first portion of validation credentials from the internal security component, wherein the validation credentials comprise the first portion and a second portion of the validation credentials; authenticating, by the enhanced media platform, running in the remote datacenter based at least on the first portion of the validation credentials; and establishing, by the enhanced media platform, a bidirectional trust with the remote datacenter location using the second portion of the validation credentials, wherein the bidirectional trust supports secure communications with the remote datacenter.
A method for synthesizing precipitated calcium carbonate characterized in that the method comprises following steps: Step 1) adding the solid, calcium bearing material, into a continuously stirred extraction solution (R1), said solid calcium bearing material being an oil shale ash from energy or oil and gas generation or iron and steelmaking slags or coal ash or waste cement; Step 2) separating the solid residual material from the calcium rich solution; Step 3) subjecting the calcium rich solution from step 2 to carbonation (CR1) for precipitating calcium carbonate, wherein carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution (CR1); Step 4) separating the calcium carbonate precipitate from solution, recovering the extraction solution and directing it to said extraction solution (R1), for use in step 1; Step 5) subjecting residual material from step 2 to a-second calcium extraction-(R2), where carbonic acid H 2 CO 3 is used as the calcium extraction agent, wherein the said carbonic acid is produced by increasing carbon dioxide partial pressure within the extraction reactor for dissolving carbon dioxide in water; Step 6) separating residual material from the aqueous calcium rich solution while still under pressure; Step 7) subjecting the aqueous calcium rich solution to precipitation (CR2) by releasing the carbon dioxide pressure to precipitate calcium carbonate; Step 8) separating the calcium carbonate precipitate from the solution; re-circulating the recovered solution back to said second calcium extraction (R2) in step 5. Step 1) adding the solid, calcium bearing material, into a continuously stirred extraction solution (R1), said solid calcium bearing material being an oil shale ash from energy or oil and gas generation or iron and steelmaking slags or coal ash or waste cement; Step 2) separating the solid residual material from the calcium rich solution; Step 3) subjecting the calcium rich solution from step 2 to carbonation (CR1) for precipitating calcium carbonate, wherein carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution (CR1); Step 4) separating the calcium carbonate precipitate from solution, recovering the extraction solution and directing it to said extraction solution (R1), for use in step 1; Step 5) subjecting residual material from step 2 to a-second calcium extraction-(R2), where carbonic acid H 2 CO 3 is used as the calcium extraction agent, wherein the said carbonic acid is produced by increasing carbon dioxide partial pressure within the extraction reactor for dissolving carbon dioxide in water; Step 6) separating residual material from the aqueous calcium rich solution while still under pressure; Step 7) subjecting the aqueous calcium rich solution to precipitation (CR2) by releasing the carbon dioxide pressure to precipitate calcium carbonate; Step 8) separating the calcium carbonate precipitate from the solution; re-circulating the recovered solution back to said second calcium extraction (R2) in step 5.
System of connected body elements for a motor vehicle, the system comprising: a first body element which has at least one channel on a surface of the body element , wherein a shoulder is formed next to the channel ; a second body element ; an adhesive which is arranged at least partially in the channel and at least partially on the shoulder and adhesively bonds the first body element to the second body element ; wherein a connection region , directly adjoining the shoulder , of the surface of the first body element is free from adhesive , wherein a first space between the shoulder and the second body element , and a second space between the connection region and the second body element , are open towards each other; characterized in that a distance between the shoulder and the second body element is between 0.5 and 4 mm. a first body element which has at least one channel on a surface of the body element , wherein a shoulder is formed next to the channel ; a second body element ; an adhesive which is arranged at least partially in the channel and at least partially on the shoulder and adhesively bonds the first body element to the second body element ; wherein a connection region , directly adjoining the shoulder , of the surface of the first body element is free from adhesive , wherein a first space between the shoulder and the second body element , and a second space between the connection region and the second body element , are open towards each other; characterized in that a distance between the shoulder and the second body element is between 0.5 and 4 mm.
A precipitation hardening steel with the composition: C: 0.05-0.30 wt% Ni: 3-9 wt% Mo: 0.5-1.5 wt% Al: 1-3 wt% Cr: 2-14 wt% V: 0.25-1.5 wt% Co: 0-0.03 wt% Mn:0-0.3 wt% Si: 0-0.3 wt% remaining part up to 100 wt% is Fe and impurity elements, with the additional proviso that the amounts of Al and Ni also fulfil a formula Al = (Ni/3)±0.5 in wt%, and with the proviso that the amount of Al is 1 wt% if the formula results in an amount of Al lower than 1 wt% and that the amount of Al is 3 wt% if the formula results in an amount of Al exceeding 3 wt% wherein the precipitation hardening steel comprises a first type of precipitations comprising Al and Ni and a second type of precipitations comprising carbides of at least one selected from the group consisting of Cr, Mo and V wherein the precipitation hardening steel optionally comprises one or more of Ca, Mg, B, Pb, Ce in amounts of maximum 0.05 wt%, wherein impurities of nitrogen, oxygen, and sulfur are limited to 30 ppm each in the bulk. C: 0.05-0.30 wt% Ni: 3-9 wt% Mo: 0.5-1.5 wt% Al: 1-3 wt% Cr: 2-14 wt% V: 0.25-1.5 wt% Co: 0-0.03 wt% Mn:0-0.3 wt% Si: 0-0.3 wt% remaining part up to 100 wt% is Fe and impurity elements, with the additional proviso that the amounts of Al and Ni also fulfil a formula Al = (Ni/3)±0.5 in wt%, and with the proviso that the amount of Al is 1 wt% if the formula results in an amount of Al lower than 1 wt% and that the amount of Al is 3 wt% if the formula results in an amount of Al exceeding 3 wt% wherein the precipitation hardening steel comprises a first type of precipitations comprising Al and Ni and a second type of precipitations comprising carbides of at least one selected from the group consisting of Cr, Mo and V wherein the precipitation hardening steel optionally comprises one or more of Ca, Mg, B, Pb, Ce in amounts of maximum 0.05 wt%, wherein impurities of nitrogen, oxygen, and sulfur are limited to 30 ppm each in the bulk.
A pharmaceutical composition comprising an insulin derivative selected from the group consisting of A14E, B16H, B25H, B29K((N ε -Eicosanedioyl-γGlu-[2-(2-{2-[2-(2-aminoethoxy)-ethoxy]acetylamino}ethoxy)ethoxy]acetyl)), desB30 human insulin (Compound 1); A14E, B16H, B25H, B29K(N ε -Hexadecandioyl-γGlu), desB30 human insulin (Compound 2); A14E, B16H, B25H, B29K(N ε -Eicosanedioyl-γGlu), desB30 human insulin (Compound 3); and A14E, B25H, desB27, B29K(N ε -Octadecandioyl-γGlu), desB30 human insulin (Compound 4); and further comprising of from 1 to 2% (weight/weight) of glycerol; of from 45 to 75 mM of phenol; of from 0 to 19 mM of m-cresol; of from 1.5 to 2.5 moles of zinc ions per six moles of said insulin derivative; of from 5 to 50 mM of sodium chloride; and having a pH value in the range of from 7.2 to 8.0 .
A method for identification and monitoring of devices of a network , wherein the devices of the network are provided and/or operated by different participating entities including hardware vendors producing the devices , supply-chain members distributing, shipping and delivering the devices and network operators acquiring the devices from hardware vendors and/or from other network operators and deploying and maintaining the acquired devices , the method comprising: setting up a distributed ledger network , wherein each of the participating entities maintains one or multiple nodes in the distributed ledger network used by the respective participating entity to issue and retrieve records to/from a ledger of the distributed ledger network , setting up a public key infrastructure that assigns each device , before being deployed to the network , a unique certified public key, and keeping an updated status of the devices in the ledger of the distributed ledger network , wherein the ledger is used to integrate device identity management, device history management and device software update management by providing for the execution of: issuing, by the participating entities upon identifying a change of a status of a device , a transaction related to the status change of the device to the ledger, wherein the device's public key is recorded in the transaction. setting up a distributed ledger network , wherein each of the participating entities maintains one or multiple nodes in the distributed ledger network used by the respective participating entity to issue and retrieve records to/from a ledger of the distributed ledger network , setting up a public key infrastructure that assigns each device , before being deployed to the network , a unique certified public key, and keeping an updated status of the devices in the ledger of the distributed ledger network , wherein the ledger is used to integrate device identity management, device history management and device software update management by providing for the execution of: issuing, by the participating entities upon identifying a change of a status of a device , a transaction related to the status change of the device to the ledger, wherein the device's public key is recorded in the transaction.
A photocurable support material composition for an inkjet 3D printer comprising: a water-soluble ethylenically unsaturated monomer containing an ionic group and a counter ion; and a photopolymerization initiator, wherein said counter ion is at least one selected from a group consisting of sodium ion, potassium ion, and ammonium ion, wherein the photocurable support material composition for an inkjet 3D printer further comprises at least one of other water-soluble ethylenically unsaturated monomer containing an ionic group and a counter ion, in which said counter ion is selected from a group consisting of zinc ion, magnesium ion, calcium ion, aluminum ion and neodymium ion. a water-soluble ethylenically unsaturated monomer containing an ionic group and a counter ion; and a photopolymerization initiator,
Actively clocked power factor correction circuit (PFC), comprising: - an input at which an AC supply voltage can be supplied, - a rectifier (D1, D2, D3, D4), - a filter capacitor (CMF) fed from the rectifier (D1, D2, D3, D4), - an inductor, - a control circuit (SS), and - a switch (S1) which can be controlled by the control circuit (SS) in order to charge the inductor during an on period and to discharge it during an off period, wherein - the control circuit (SS) is configured to set an on period of the switch (S1) for regulating the output voltage (U out ) of the power factor correction circuit (PFC), to measure a capacitor voltage across the filter capacitor (CMF) and to change the on period of the switch (S1) depending on the measurement of the capacitor voltage, characterized in that - the control circuit is configured to determine a setpoint curve, the course of which corresponds to the AC supply voltage, in which every second half-wave is inverted, to compare the capacitor voltage to the setpoint curve and, as depending thereupon, to change the set on period of the switch (S1) in order to modulate the capacitor voltage to the setpoint curve. - an input at which an AC supply voltage can be supplied, - a rectifier (D1, D2, D3, D4), - a filter capacitor (CMF) fed from the rectifier (D1, D2, D3, D4), - an inductor, - a control circuit (SS), and - a switch (S1) which can be controlled by the control circuit (SS) in order to charge the inductor during an on period and to discharge it during an off period, wherein - the control circuit (SS) is configured to set an on period of the switch (S1) for regulating the output voltage (U out ) of the power factor correction circuit (PFC), to measure a capacitor voltage across the filter capacitor (CMF) and to change the on period of the switch (S1) depending on the measurement of the capacitor voltage, - the control circuit is configured to determine a setpoint curve, the course of which corresponds to the AC supply voltage, in which every second half-wave is inverted, to compare the capacitor voltage to the setpoint curve and, as depending thereupon, to change the set on period of the switch (S1) in order to modulate the capacitor voltage to the setpoint curve.