mhurhangee/ep-ind-claims huggingface dataset:
A system for completely or at least partially decoupling IP traffic from Network to Network Interface, NNI, underlay routers, the system further comprising: a mobile device having a physically or virtually installed Software-Defined Wide Area Network, SDWAN, overlay router and a modem consisting of an SDWAN underlay router and a radio module; an international backbone operator comprising a first international backbone operator underlay access router located at a first country and a second international backbone operator underlay access router located at a second country connected via an hyperscaler cloud, a Customer SDWAN Hub located in the second country including a Customer Data Center underlay access router, a Customer SDWAN Data Center overlay router, a Customer Data Center and a Customer Authentication Server, wherein the SDWAN overlay router of the mobile device is configured to completely or at least partially route traffic from the SDWAN overlay router of the mobile device through the SDWAN underlay router, the international backbone operator to the Customer SDWAN Data Center overlay router via the Customer Data Center underlay access router via a Virtual Private Network, VPN, tunnel or via Secure Vector Routing, SVR, and wherein the Customer SDWAN Data Center overlay router is configured to completely or at least partially route traffic from the Customer SDWAN Data Center overlay router through the Customer Data Center underlay access router, the international backbone operator to the SDWAN overlay router via the SDWAN underlay router of the mobile device via Virtual Private Network, VPN, tunnelling or via Secure Vector Routing, SVR. a mobile device having a physically or virtually installed Software-Defined Wide Area Network, SDWAN, overlay router and a modem consisting of an SDWAN underlay router and a radio module; an international backbone operator comprising a first international backbone operator underlay access router located at a first country and a second international backbone operator underlay access router located at a second country connected via an hyperscaler cloud, a Customer SDWAN Hub located in the second country including a Customer Data Center underlay access router, a Customer SDWAN Data Center overlay router, a Customer Data Center and a Customer Authentication Server, wherein the SDWAN overlay router of the mobile device is configured to completely or at least partially route traffic from the SDWAN overlay router of the mobile device through the SDWAN underlay router, the international backbone operator to the Customer SDWAN Data Center overlay router via the Customer Data Center underlay access router via a Virtual Private Network, VPN, tunnel or via Secure Vector Routing, SVR, and wherein the Customer SDWAN Data Center overlay router is configured to completely or at least partially route traffic from the Customer SDWAN Data Center overlay router through the Customer Data Center underlay access router, the international backbone operator to the SDWAN overlay router via the SDWAN underlay router of the mobile device via Virtual Private Network, VPN, tunnelling or via Secure Vector Routing, SVR.
A shock absorber for attenuating impact forces imparted thereto in stages of differing attenuation, the shock absorber comprising: a top wall comprising a raised central portion and a top rim; a bottom rim; a side wall extending between the top and bottom rims (204, 120); and a corrugation surrounding a periphery of the raised central portion that (i) connects the raised central portion to the top rim, (ii) descends to a depth below half a height of the side wall, and (iii) is separated by a distance from a surface, wherein the shock absorber is configured to attenuate impact forces imparted on the shock absorber by a first amount in a first stage by resistive yielding of the side wall, by a second amount in a second stage by depression of the central portion and resistive yielding of the corrugation associated therewith, and by a third amount in a third stage by resistive yielding of the corrugation; wherein the side wall comprises a first region having a first angle with respect to a vertical reference line and a second region having a second angle with respect to the vertical reference line; characterized in that the first angle and the second angle deviate from the vertical line in the same direction, and the bottom rim has a diameter equal to or greater than that of any portion of the side wall. a top wall comprising a raised central portion and a top rim; a bottom rim; a side wall extending between the top and bottom rims (204, 120); and a corrugation surrounding a periphery of the raised central portion that (i) connects the raised central portion to the top rim, (ii) descends to a depth below half a height of the side wall, and (iii) is separated by a distance from a surface, wherein the shock absorber is configured to attenuate impact forces imparted on the shock absorber by a first amount in a first stage by resistive yielding of the side wall, by a second amount in a second stage by depression of the central portion and resistive yielding of the corrugation associated therewith, and by a third amount in a third stage by resistive yielding of the corrugation;
A sensor device for measuring an analyte concentration in a host, the sensor device comprising: a sensor unit comprising a sensor body (112, 412, 702, 802), at least one electrode, and a membrane (114, 414, 704) covering at least a portion of the at least one electrode; a tissue-piercing element (108, 310, 408, 708) comprising a dissolvable material that dissolves after insertion into the host, the tissue-piercing element (108, 408, 708) abutting the sensor body (112, 412, 702, 802) and being capable of piercing tissue; and a mounting unit spaced from the sensor tip and configured to support the sensor device on an exterior surface of the host's skin, characterized in that the dissolvable material comprises a protein at a weight percentage of about 46 wt.% or more based on the total weight of the dissolvable material, and in that the dissolvable material comprises a polysaccharide at a weight percentage from about 2 wt.% to about 10 wt.% based on the total weight of the dissolvable material. a sensor unit comprising a sensor body (112, 412, 702, 802), at least one electrode, and a membrane (114, 414, 704) covering at least a portion of the at least one electrode; a tissue-piercing element (108, 310, 408, 708) comprising a dissolvable material that dissolves after insertion into the host, the tissue-piercing element (108, 408, 708) abutting the sensor body (112, 412, 702, 802) and being capable of piercing tissue; and a mounting unit spaced from the sensor tip and configured to support the sensor device on an exterior surface of the host's skin, characterized in that the dissolvable material comprises a protein at a weight percentage of about 46 wt.% or more based on the total weight of the dissolvable material, and in that the dissolvable material comprises a polysaccharide at a weight percentage from about 2 wt.% to about 10 wt.% based on the total weight of the dissolvable material.
Organic photodetector comprising a first planar electrode (11, 21) formed on a planar substrate (10, 20), a convex active layer (12, 22) formed on the first planar electrode, and a second electrode (13, 23) in the form of a layer which conforms to the outer shape of the convex active layer and has a convex shape such that the second electrode (13, 23) acts as a converging lens, means for concentrating light radiation in the active layer being incorporated into the photodetector and represented by the second electrode (13, 23).
An object detection device comprising: a light output unit that outputs a first signal (Lm) toward an object (O, O1 to O6); a plurality of light detection units (143-1 to 143-n) each detecting a second signal (Lr) generated when the first signal (Lm) is reflected by the object (O, O1 to O6) as a signal representing a distance to the object (O, O1 to O6) present in an observed area and a shape of the object (O, O1 to O6); characterized in that it further comprises a data acquiring unit that acquires, from each of the plurality of light detection units (143-1 to 143-n), a detection signal waveform (W, Wm) represented as a change in an intensity of the second signal (Lr) with respect to time; and an object information determining unit that determines a presence range of the object (O, O1 to O6) by determining whether two or more arbitrary light detection units (143-1 to 143-n) correspond to the same object or different objects on the basis of the detection signal waveform (W, Wm) by comparison of detection signal waveforms (W, Wm) acquired from the two or more arbitrary different light detection units (143-1 to 143-n). a light output unit that outputs a first signal (Lm) toward an object (O, O1 to O6); a plurality of light detection units (143-1 to 143-n) each detecting a second signal (Lr) generated when the first signal (Lm) is reflected by the object (O, O1 to O6) as a signal representing a distance to the object (O, O1 to O6) present in an observed area and a shape of the object (O, O1 to O6); characterized in that it further comprises a data acquiring unit that acquires, from each of the plurality of light detection units (143-1 to 143-n), a detection signal waveform (W, Wm) represented as a change in an intensity of the second signal (Lr) with respect to time; and an object information determining unit that determines a presence range of the object (O, O1 to O6) by determining whether two or more arbitrary light detection units (143-1 to 143-n) correspond to the same object or different objects on the basis of the detection signal waveform (W, Wm) by comparison of detection signal waveforms (W, Wm) acquired from the two or more arbitrary different light detection units (143-1 to 143-n).
A method for production of a sterile thermoreversible hydrogel, said hydrogel having a temperature T min lower than its gelation temperature, at which the viscosity reaches an at least local minimum, characterized in that said process comprises: mixing dry components of said hydrogel in a separate container; dissolving in water, within a predetermined temperature range relative to said T min, components of said sterile thermoreversible hydrogel; mixing said components until a thermoreversible gel is obtained; and, filtering said thermoreversible gel within a predetermined temperature of said T min; wherein said components comprise between 18% and 40% (w/w) ethylene oxide/propylene oxide block copolymer, between 0.05% and 2% (w/w) HPMC or CMC, between 0.1% and 10% (w/w) PEG-400, and the balance water; and wherein said predetermined temperature range is ± 4 °C of said T min. mixing dry components of said hydrogel in a separate container; dissolving in water, within a predetermined temperature range relative to said T min, components of said sterile thermoreversible hydrogel; mixing said components until a thermoreversible gel is obtained; and, filtering said thermoreversible gel within a predetermined temperature of said T min; wherein said components comprise between 18% and 40% (w/w) ethylene oxide/propylene oxide block copolymer, between 0.05% and 2% (w/w) HPMC or CMC, between 0.1% and 10% (w/w) PEG-400, and the balance water; and
Cosmetic composition comprising as an active ingredient, Caulerpa lentillifera extract, hydrolysed rice proteins, Hibiscus esculentus Moench extract and Luffa cylindrica extract, the remainder of the composition comprising ingredients which are generally allowable in the cosmetic field.
A method for the hydroprocessing of renewable feeds in a hydroprocessing unit (unit A), said method comprising the use of sour waste water from another unit (unit B), which is processing feeds containing sulfur and nitrogen, as wash water in unit A, thereby changing the pH of the waste water from unit A to lower the risk of carbonic acid corrosion of corrodible steel parts in unit A, wherein the renewable material in unit A is directed to contact a material that is catalytically active in hydrogenating the renewable material in the presence of hydrogen, and the effluent is combined with the wash water stream which contains hydrogen sulfide and ammonia, and wherein the method further comprises the unit that produces sour water (unit B), which is a hydroprocessing unit treating petroleum-based feeds.
Process for recovering aliphatic monocarboxylic acids having from 4 to 11 carbon atoms from the distillation residue obtained in the oxidation of the corresponding aldehyde by means of oxygen or oxygen-containing gas mixtures in the presence of alkali metal carboxylates and alkaline earth metal carboxylates to form the corresponding monocarboxylic acid and subsequent distillation, characterized in that the distillation residue is reacted with an aqueous acid in a tube reactor and the two-phase mixture flowing out from the tube reactor is introduced into a settling vessel in which the organic phase which separates out has a pH of 4.5 or less.
A vehicle, comprising a wireless vehicle to vehicle communication system mounted on the vehicle's front side location, said system equipped to provide inter vehicle communication, said vehicle being a truck, and further comprising; - a wing assembly (20, 20', 120, 200, 220) arranged for mounting on the vehicles front side location; - wherein the wing assembly (20, 20', 120, 200, 220) houses one or more digital communications antennas (160, 161) of the wireless vehicle to vehicle communication system and - wherein the wing assembly (20, 20', 120, 200, 220) has a side portion, shaped as a winglet, that houses a first antenna of the wireless vehicle to vehicle communication system at a first height and/or horizontal position, and a second antenna of the wireless vehicle to vehicle communication system at a second height and/or horizontal position, different from the first height and/or first horizontal position for the purpose of optimizing transmission and reception quality. - a wing assembly (20, 20', 120, 200, 220) arranged for mounting on the vehicles front side location; - wherein the wing assembly (20, 20', 120, 200, 220) houses one or more digital communications antennas (160, 161) of the wireless vehicle to vehicle communication system and - wherein the wing assembly (20, 20', 120, 200, 220) has a side portion, shaped as a winglet, that houses a first antenna of the wireless vehicle to vehicle communication system at a first height and/or horizontal position, and a second antenna of the wireless vehicle to vehicle communication system at a second height and/or horizontal position, different from the first height and/or first horizontal position for the purpose of optimizing transmission and reception quality.
A motor-driven compressor, comprising: a compression mechanism for compressing refrigerant; an electric motor for driving the compression mechanism; an inverter for controlling the operation of the electric motor; and a motor harness for electrically connecting the electric motor to the inverter, wherein the compression mechanism and the electric motor are mechanically connected each other, the electric motor has first and second coil ends (15A, 15B), the first coil end is located on the side of the compression mechanism and the inverter is located on the side of the second coil end, characterized in that the motor harness is led out from the first coil end. a compression mechanism for compressing refrigerant; an electric motor for driving the compression mechanism; an inverter for controlling the operation of the electric motor; and a motor harness for electrically connecting the electric motor to the inverter, wherein the compression mechanism and the electric motor are mechanically connected each other, the electric motor has first and second coil ends (15A, 15B), the first coil end is located on the side of the compression mechanism and the inverter is located on the side of the second coil end, characterized in that the motor harness is led out from the first coil end.
Process for metallizing electrically nonconductive plastic surfaces of articles, comprising the process steps of: A) etching the plastic surface with an aqueous etching solution; B) treating the plastic surface with a solution of a metal colloid or of a compound of a metal, the metal being selected from the metals of transition group I of the Periodic Table of the Elements and transition group VIII of the Periodic Table of the Elements, and C) metallizing the plastic surface with a metallizing solution; characterized in that the etching solution comprises a source of chlorate ions resulting in a concentration of 0.0016 to 0.12 mol/l of chlorate ions and 50-80% v/v sulfuric acid and wherein the etching solution is free of chromium III ions and chromium VI ions. A) etching the plastic surface with an aqueous etching solution; B) treating the plastic surface with a solution of a metal colloid or of a compound of a metal, the metal being selected from the metals of transition group I of the Periodic Table of the Elements and transition group VIII of the Periodic Table of the Elements, and C) metallizing the plastic surface with a metallizing solution;
Device for drying printed containers comprising a drivable transport element with container handling stations, wherein the containers accommodated on the container handling stations are moved by the transport element on a movement path between at least one container feed and at least one container discharge, with drying and hardening devices assigned to the container handling stations in order to bring about a hardening and drying reaction on the printed containers, and comprising or capable of being connected to an evaluation unit, wherein at least one sensor is provided, which is configured for the detection of heat energy or thermal radiation which is emitted from the container which has undergone the drying reaction, wherein the drying and hardening devices are configured such as to bring about an exothermic reaction on the printed container, and wherein the sensor is configured such as to detect the heat energy emitted from the container, incurred by the exothermic drying reaction, and the sensor comprises an evaluation unit or the sensor is connected to an evaluation unit, by means of which the degree of drying of the printed container can be determined on the basis of the heat energy detected by the sensor.
A knocking control system for a gas engine comprising: an ignition device for igniting an air-fuel mixture supplied to the gas engine; a knocking detector for detecting a knocking in a cylinder of the gas engine; a phase angle detector for detecting a phase angle of the gas engine; and a controller for driving the ignition device, the controller being configured to calculate a knocking occurrence ratio which is a ratio of a cycle number (N L) of cycles in which a predetermined knocking occurs for a period of the cycles of the predetermined cycle number, to the predetermined cycle number, perform a delay calculation of the knocking occurrence ratio to calculate an occurrence ratio delay calculation value (SEV AVE), calculate a deviation (Δ SEV) between the occurrence ratio delay calculation value (SEV AVE) and a predetermined occurrence ratio target value (SEV SET), and drive the ignition device so that the ignition timing reaches a command value decided according to a target value (IGN SET1) of the ignition timing of the ignition device wherein the target value (IGN SET1) is obtained by retarding a reference value (IGN AVE) of the ignition timing of the ignition device based on the deviation (Δ SEV), if the occurrence ratio delay calculation value (SEV AVE) is larger than the occurrence ratio target value (SEV SET) and by putting the reference value (IGN AVE) of the ignition timing of the ignition device advanced based on the deviation (Δ SEV), if the occurrence ratio delay calculation value (SEV AVE) is smaller than the occurrence ratio target value (SEV SET). an ignition device for igniting an air-fuel mixture supplied to the gas engine; a knocking detector for detecting a knocking in a cylinder of the gas engine; a phase angle detector for detecting a phase angle of the gas engine; and a controller for driving the ignition device, the controller being configured to calculate a knocking occurrence ratio which is a ratio of a cycle number (N L) of cycles in which a predetermined knocking occurs for a period of the cycles of the predetermined cycle number, to the predetermined cycle number, perform a delay calculation of the knocking occurrence ratio to calculate an occurrence ratio delay calculation value (SEV AVE), calculate a deviation (Δ SEV) between the occurrence ratio delay calculation value (SEV AVE) and a predetermined occurrence ratio target value (SEV SET), and drive the ignition device so that the ignition timing reaches a command value decided according to a target value (IGN SET1) of the ignition timing of the ignition device wherein the target value (IGN SET1) is obtained by retarding a reference value (IGN AVE) of the ignition timing of the ignition device based on the deviation (Δ SEV), if the occurrence ratio delay calculation value (SEV AVE) is larger than the occurrence ratio target value (SEV SET) and by putting the reference value (IGN AVE) of the ignition timing of the ignition device advanced based on the deviation (Δ SEV), if the occurrence ratio delay calculation value (SEV AVE) is smaller than the occurrence ratio target value (SEV SET).
Method for producing a cartridge system for producing a beverage, wherein the cartridge system is insertable into a beverage preparation machine, has a cartridge comprising a reservoir filled with a beverage substance, and a cartridge receptacle connected to the cartridge; wherein the cartridge receptacle has a mixing chamber which can be fluidically connected to the reservoir, and a fluid supply which opens into the mixing chamber, wherein the cartridge is at least partially made of aluminium, characterized in that, in a first method step, an aluminium sheet is provided, wherein, in a second method step, the main body is at least partially produced from the aluminium sheet by punching and deep drawing or extrusion, wherein, in a third method step, a sealing element is attached to the main body and wherein, in a fourth method step, the main body is connected to the cartridge receptacle.