mhurhangee/patent-ind-claim-en huggingface dataset:
A network access method for an edge router, the edge router being in communication connection with a cloud gateway and at least one tenant network edge device, the method comprising: receiving a first request message sent by a first tenant network edge device in the at least one tenant network edge device; acquiring a first request identifier corresponding to the first tenant network edge device based on port information of a port connected to the first tenant network edge device, the first request identifier being used to identify the first tenant network edge device; adding the first request identifier to the first request message to generate a processed first request message; and forwarding the processed first request message to the cloud gateway, based on a stored routing table, characterized in that , the method is performed by the edge router and further comprises: receiving a first response message sent by the cloud gateway in response to the first request message, wherein the first response message comprises a first response identifier, and the first response identifier is used to identify the first tenant network edge device; removing the first response identifier for the first response message to generate a processed first response message; and forwarding the processed first response message to the first tenant network edge device, based on the port information. receiving a first request message sent by a first tenant network edge device in the at least one tenant network edge device; acquiring a first request identifier corresponding to the first tenant network edge device based on port information of a port connected to the first tenant network edge device, the first request identifier being used to identify the first tenant network edge device; adding the first request identifier to the first request message to generate a processed first request message; and forwarding the processed first request message to the cloud gateway, based on a stored routing table, receiving a first response message sent by the cloud gateway in response to the first request message, wherein the first response message comprises a first response identifier, and the first response identifier is used to identify the first tenant network edge device; removing the first response identifier for the first response message to generate a processed first response message; and forwarding the processed first response message to the first tenant network edge device, based on the port information.
Metal interference pigments comprising aluminum platelets having an average thickness in the range of from 5 nm to 600 nm, which are optionally passivated and which are coated with a layer A and a layer B in this order, wherein layer A is composed of silicon dioxide and layer B is composed of iron(III) oxide doped with a dopant element selected from the group consisting of tungsten, indium, gallium and titanium, wherein the molar fraction of the dopant element in layer B, based on the total molar amount of iron and the dopant element, is from 0.5 mol% to 10 mol%, and wherein 60 to 85 parts by mass of iron(III) oxide, based on 10 parts by mass of aluminum, are present in the metal interference pigments. wherein layer A is composed of silicon dioxide and layer B is composed of iron(III) oxide doped with a dopant element selected from the group consisting of tungsten, indium, gallium and titanium, wherein the molar fraction of the dopant element in layer B, based on the total molar amount of iron and the dopant element, is from 0.5 mol% to 10 mol%, and wherein 60 to 85 parts by mass of iron(III) oxide, based on 10 parts by mass of aluminum, are present in the metal interference pigments.
An electrochemical pretreatment method of a vanadium positive electrode for a lithium secondary battery, wherein the vanadium positive electrode active material is represented by Formula 1 below and the negative electrode active material is a lithium metal or a lithium alloy, the method comprising: a) a step of discharging the lithium free vanadium positive electrode at a voltage of 1.9 V or more vs Li/Li + ; b) an electrochemical pretreatment step of maintaining the discharged vanadium positive electrode at an onset potential value or a potential value having a maximum current through a potentiostat; and c) a step of charging/discharging the pretreated vanadium positive electrode at a voltage range of 2.1 to 4.0 V, and wherein the onset potential value and the potential values having the maximum current are derived by confirming the reduction peak of the lithium secondary battery using vanadium oxide as a positive electrode through a cyclic voltammetry, and wherein the electrochemical pretreatment is performed for 5 to 60 seconds, and wherein the surface of the pretreated vanadium positive electrode is in an omega (ω) phase and the inside is any one of alpha (α), epsilon (ε), delta (δ), and gamma (γ) phases: [Formula 1] V a O b , wherein 1 ≤ a ≤ 6 and 2 ≤ b ≤ 13. a) a step of discharging the lithium free vanadium positive electrode at a voltage of 1.9 V or more vs Li/Li + ; b) an electrochemical pretreatment step of maintaining the discharged vanadium positive electrode at an onset potential value or a potential value having a maximum current through a potentiostat; and c) a step of charging/discharging the pretreated vanadium positive electrode at a voltage range of 2.1 to 4.0 V, and wherein the onset potential value and the potential values having the maximum current are derived by confirming the reduction peak of the lithium secondary battery using vanadium oxide as a positive electrode through a cyclic voltammetry, and wherein the electrochemical pretreatment is performed for 5 to 60 seconds, and wherein the surface of the pretreated vanadium positive electrode is in an omega (ω) phase and the inside is any one of alpha (α), epsilon (ε), delta (δ), and gamma (γ) phases: [Formula 1] V a O b , wherein 1 ≤ a ≤ 6 and 2 ≤ b ≤ 13.
A method, on a Mobile Equipment, ME, comprising: sending, to a universal integrated circuit card, UICC, a download profile, the download profile indicating support for an Internet Protocol, IP, Multimedia Subsystem, IMS, Registration Event; in response to sending the download profile, receiving, from the UICC, a SET UP EVENT LIST command setting up a current event list, the current event list including the IMS Registration Event; receiving a Status-code from an IMS network in response to a Session Initiation Protocol, SIP, REGISTER message, the Status-code indicating an IMS registration failure; in response to receiving the Status-code, informing the UICC of the IMS registration failure; wherein informing the UICC is based on the IMS Registration Event in the current event list. sending, to a universal integrated circuit card, UICC, a download profile, the download profile indicating support for an Internet Protocol, IP, Multimedia Subsystem, IMS, Registration Event; in response to sending the download profile, receiving, from the UICC, a SET UP EVENT LIST command setting up a current event list, the current event list including the IMS Registration Event; receiving a Status-code from an IMS network in response to a Session Initiation Protocol, SIP, REGISTER message, the Status-code indicating an IMS registration failure; in response to receiving the Status-code, informing the UICC of the IMS registration failure; wherein informing the UICC is based on the IMS Registration Event in the current event list.
A control device comprising: a processor ; a driving circuit comprising a plurality of switching elements each of which drives one of a plurality of ignition devices of a single type included in each of cylinders of a multi-cylinder engine, wherein an ignition device is driven when a switching element is in a first operating state and the ignition device is not driven when the switching element is in a second operating state, the driving circuit changing the first operating state and the second operating state of the plurality of switching elements on the basis of a plurality of control signals each corresponding to one of the plurality of switching elements, the control signals collectively received from the processor at every predetermined interval of time; and a communication circuit that transmits the plurality of control signals from the processor to the driving circuit via serial communication, wherein the plurality of control signals collectively received from the processor is determined as being abnormal if the plurality of control signals includes a plurality of signals indicating the first operating state, characterized in that the ignition devices are driven using a latest data frame of the plurality of control signals if the plurality of control signals collectively received from the processor includes a plurality of signals indicating the first operating state. a processor ; a driving circuit comprising a plurality of switching elements each of which drives one of a plurality of ignition devices of a single type included in each of cylinders of a multi-cylinder engine, wherein an ignition device is driven when a switching element is in a first operating state and the ignition device is not driven when the switching element is in a second operating state, the driving circuit changing the first operating state and the second operating state of the plurality of switching elements on the basis of a plurality of control signals each corresponding to one of the plurality of switching elements, the control signals collectively received from the processor at every predetermined interval of time; and a communication circuit that transmits the plurality of control signals from the processor to the driving circuit via serial communication, wherein the plurality of control signals collectively received from the processor is determined as being abnormal if the plurality of control signals includes a plurality of signals indicating the first operating state, characterized in that the ignition devices are driven using a latest data frame of the plurality of control signals if the plurality of control signals collectively received from the processor includes a plurality of signals indicating the first operating state.
A robotic ground conveyor vehicle for transporting pallets comprising, - a loading surface with; - a plurality of vertically adjustable load support members for supporting a pallet carried by the robotic ground conveyor vehicle, wherein the load support members are arranged spaced apart on the loading surface and such that a pallet supported by the load support members may be engaged by forks of a forklift truck, characterised in that the loading surface extends in a longitudinal direction between a front end and a rear end of the robotic ground conveyor vehicle , the load support members are spaced apart at least in the longitudinal direction of the loading surface , the load support members are arranged in at least two rows (130', 130"), wherein each row comprises at least two load support members (130.1', 130.2'; 130.1", 130.2"), and wherein the load support members are spaced apart such that an opening is formed between at least two adjacent load support members (130.1', 130.2'; 130.1", 130.2') of each row (130', 130"), wherein the opening is configured to receive a fork of a forklift truck. - a loading surface with; - a plurality of vertically adjustable load support members for supporting a pallet carried by the robotic ground conveyor vehicle, wherein the load support members are arranged spaced apart on the loading surface and such that a pallet supported by the load support members may be engaged by forks of a forklift truck, characterised in that the loading surface extends in a longitudinal direction between a front end and a rear end of the robotic ground conveyor vehicle , the load support members are spaced apart at least in the longitudinal direction of the loading surface , the load support members are arranged in at least two rows (130', 130"), wherein each row comprises at least two load support members (130.1', 130.2'; 130.1", 130.2"), and wherein the load support members are spaced apart such that an opening is formed between at least two adjacent load support members (130.1', 130.2'; 130.1", 130.2') of each row (130', 130"), wherein the opening is configured to receive a fork of a forklift truck.
A biological sample processing device , comprising a support mechanism , a thermal unit , a microfluidic device , a pressurized fluid feeding system , a control system for controlling the temperature and fluid pressure parameters of the device and a sample support , wherein • the support mechanism comprises an adjustable piston mechanism pushing the sample support from below against the microfluidic device to improve clamping and fluidic sealing with the seal compressed between the microfluidic device and sample support, the microfluidic device comprises a microfluidic chamber having a volume comprised between 2.5 μL and 200 μl, at least one fluid inlet at one end of said microfluidic chamber and at least one fluid outlet at another end of said microfluidic chamber configured to conduct a fluid through the microfluidic chamber for reaction with the sample inside said microfluidic chamber and • at least one wall of the microfluidic chamber is formed by the sample support and is mounted against a seal in a fluid-tight and removable manner to a first wall of the microfluidic chamber by a clamping mechanism configured to compress the seal between the sample support and microfluidic device to an extent sufficient to contain a pressure P chamber in the microfluidic chamber greater than 1.5 bars, preferably greater than 2 bars, in particular greater than 2.5 bars, more preferably greater than 3 bars. • the support mechanism comprises an adjustable piston mechanism pushing the sample support from below against the microfluidic device to improve clamping and fluidic sealing with the seal compressed between the microfluidic device and sample support, the microfluidic device comprises a microfluidic chamber having a volume comprised between 2.5 μL and 200 μl, at least one fluid inlet at one end of said microfluidic chamber and at least one fluid outlet at another end of said microfluidic chamber configured to conduct a fluid through the microfluidic chamber for reaction with the sample inside said microfluidic chamber and • at least one wall of the microfluidic chamber is formed by the sample support and is mounted against a seal in a fluid-tight and removable manner to a first wall of the microfluidic chamber by a clamping mechanism configured to compress the seal between the sample support and microfluidic device to an extent sufficient to contain a pressure P chamber in the microfluidic chamber greater than 1.5 bars, preferably greater than 2 bars, in particular greater than 2.5 bars, more preferably greater than 3 bars.
A lubricant composition for a driveline system comprising: (a) an oil of lubricating viscosity having a kinematic viscosity at 100 °C of 2 to 10cSt; (b) at least one viscosity modifier comprising a grafted copolymer that is an oil soluble ashless condensation reaction product of an olefin polymer, having a number average molecular weight ("Mn") as measured by Gel Permeation Chromatography ("GPC") with a polystyrene standard of 1000 to 10,000, comprising carboxylic acid functionality or a reactive equivalent thereof grafted onto the polymer backbone, with an amine, provided that if the olefin polymer is an ethylene/propylene copolymer, then said amine is one of an aliphatic amine, a heterocyclic amine or an aromatic amine; (c) at least one oil soluble phosphorus containing antiwear agent wherein the grafted copolymer is present from 3 to 50 wt% of the composition, and wherein the lubricant is for an automotive gear and has a sulfur content of 100 to 40,000 ppm and a phosphorus content of 200ppm to 3000ppm. (a) an oil of lubricating viscosity having a kinematic viscosity at 100 °C of 2 to 10cSt; (b) at least one viscosity modifier comprising a grafted copolymer that is an oil soluble ashless condensation reaction product of an olefin polymer, having a number average molecular weight ("Mn") as measured by Gel Permeation Chromatography ("GPC") with a polystyrene standard of 1000 to 10,000, comprising carboxylic acid functionality or a reactive equivalent thereof grafted onto the polymer backbone, with an amine, provided that if the olefin polymer is an ethylene/propylene copolymer, then said amine is one of an aliphatic amine, a heterocyclic amine or an aromatic amine; (c) at least one oil soluble phosphorus containing antiwear agent
Method for heat treating of a rail , comprising - preheating of the head, the web and the foot of the rail ; - postheating, - cooling the rail over its section successively to a temperature facilitating obtainment of a highly dispersed pearlite, characterised in that the control of the heating is carried out continuously or intermittently by means of individual induction heating devices with the possibility of carrying out a retention in the intervals therebetween for equalizing the temperatures of the surface and inner volumes over the cross-section of the rail , wherein the preheating is carried out to a temperature from the austenization start temperature, point Ac 1 , without exceeding the austenitization end temperature, point Ac 3 , wherein the preheating is started from the surface layers providing a phased transformation of small volumes of material as the heat-through front moves into the depth of the rail, while the postheating of the head, the web and the foot of the rail is carried out by thermal cycling in the α-γ phase transformation region, wherein after completion of the cooling, which facilitates the obtainment of the highly dispersed perlite, a self-tempering is carried out to remove stresses, and subsequently an additional cooling of the rail to a temperature of ≤ 250°C with adjustment of parameters of a gaseous cooling medium supplied over different surfaces of the rail and a final cooling to a temperature below 60°C are carried out. - preheating of the head, the web and the foot of the rail ; - postheating, - cooling the rail over its section successively to a temperature facilitating obtainment of a highly dispersed pearlite, the control of the heating is carried out continuously or intermittently by means of individual induction heating devices with the possibility of carrying out a retention in the intervals therebetween for equalizing the temperatures of the surface and inner volumes over the cross-section of the rail , wherein the preheating is carried out to a temperature from the austenization start temperature, point Ac 1 , without exceeding the austenitization end temperature, point Ac 3 , wherein the preheating is started from the surface layers providing a phased transformation of small volumes of material as the heat-through front moves into the depth of the rail, while the postheating of the head, the web and the foot of the rail is carried out by thermal cycling in the α-γ phase transformation region, wherein after completion of the cooling, which facilitates the obtainment of the highly dispersed perlite, a self-tempering is carried out to remove stresses, and subsequently an additional cooling of the rail to a temperature of ≤ 250°C with adjustment of parameters of a gaseous cooling medium supplied over different surfaces of the rail and a final cooling to a temperature below 60°C are carried out.
A programmable integrated circuit, IC , comprising: a processor; a plurality of endpoint circuits; a network-on-chip, NoC having NoC master units, NMUs , NoC slave units, NSUs , NoC programmable switches, NPSs , a plurality of registers , and a NoC programming interface, NPI ; wherein the processor is coupled to the NPI and is configured to program the NPSs by loading first programming data to the registers through the NPI for providing physical channels between NMUs to the NSUs and providing data paths between the plurality of endpoint circuits; wherein the processor is further configured to receive second programming data during runtime and loading the second programming data to the registers in the NoC through the NPI , wherein the second programming data configures routing tables in NoC programmable switches, NPSs in the NoC . a processor; a plurality of endpoint circuits; a network-on-chip, NoC having NoC master units, NMUs , NoC slave units, NSUs , NoC programmable switches, NPSs , a plurality of registers , and a NoC programming interface, NPI ; wherein the processor is coupled to the NPI and is configured to program the NPSs by loading first programming data to the registers through the NPI for providing physical channels between NMUs to the NSUs and providing data paths between the plurality of endpoint circuits; wherein the processor is further configured to receive second programming data during runtime and loading the second programming data to the registers in the NoC through the NPI , wherein the second programming data configures routing tables in NoC programmable switches, NPSs in the NoC .
System for dispensing a product, comprising a dispenser that receives at least two cartridges that each have a reservoir containing a base product, a first base product comprising at least 0.1% by mass of particles exhibiting a difference in density, preferably of at least 0.5 g/cm 3 , with the medium which contains them, the particles having a density greater than or equal to 2 g/cm 3 , and a thickener, the dispenser making it possible to deliver at least two base products in adjustable proportions, the viscosity of the first base product being greater than 2 Pa.s, the viscosity being measured as described in the description, the thickener of the first base product being chosen from saccharide compounds of the rubber type and its mass content in the first base product being between 0.8% and 2.5% relative to the total mass of the first base product.
A method comprising: determining a target region based at least in part on depth range data corresponding to an intensity image, the intensity image comprising data descriptive of a hand; determining a point of interest of a hand portion of the target region, wherein the point of interest is an estimated center of the hand portion; determining a shape corresponding to a palm region of the hand, wherein the shape corresponds to a circle determined from a plurality of circle features extracted from the target region; determining a cutting direction and cutting position for removal of a selected portion of the target region, the cutting direction being based on characteristics of the target region, and the cutting position being based on a spatial relationship between a center of the palm region and the point of interest of the hand portion of the target region; and removing the selected portion of the target region to identify a portion of the target region corresponding to the hand. determining a target region based at least in part on depth range data corresponding to an intensity image, the intensity image comprising data descriptive of a hand; determining a point of interest of a hand portion of the target region, wherein the point of interest is an estimated center of the hand portion; determining a shape corresponding to a palm region of the hand, wherein the shape corresponds to a circle determined from a plurality of circle features extracted from the target region; determining a cutting direction and cutting position for removal of a selected portion of the target region, the cutting direction being based on characteristics of the target region, and the cutting position being based on a spatial relationship between a center of the palm region and the point of interest of the hand portion of the target region; and removing the selected portion of the target region to identify a portion of the target region corresponding to the hand.