mhurhangee/patent-ind-claim-en huggingface dataset:
A system for presenting graphics on a display device , wherein the system comprises: an eye tracking device configured to determine a gaze point of a user on a display device ; and a processing device configured to: cause an image to be displayed on the display device; and modify an area of the image which includes the gaze point of the user, wherein: modifying the area of the image comprises modifying at least one parameter of the image within the area of the image relative to a remainder of the image, such that the area is rendered in a higher quality than the remainder of the image; characterized in that the processing device is further configured to: determine a size of the area based at least in part on an amount of noise in the gaze point over time and at least one other secondary factor, wherein the at least one other secondary factor comprises content displayed on the display device . an eye tracking device configured to determine a gaze point of a user on a display device ; and a processing device configured to: cause an image to be displayed on the display device; and modify an area of the image which includes the gaze point of the user, wherein: modifying the area of the image comprises modifying at least one parameter of the image within the area of the image relative to a remainder of the image, such that the area is rendered in a higher quality than the remainder of the image; cause an image to be displayed on the display device; and modify an area of the image which includes the gaze point of the user, wherein: modifying the area of the image comprises modifying at least one parameter of the image within the area of the image relative to a remainder of the image, such that the area is rendered in a higher quality than the remainder of the image; characterized in that the processing device is further configured to: determine a size of the area based at least in part on an amount of noise in the gaze point over time and at least one other secondary factor, wherein the at least one other secondary factor comprises content displayed on the display device .
A machine for preparing beverages, the machine comprising a cold-water tank , a system for producing and dispensing hot water , a showerhead that is powered by said system, a capsule support , and a receptacle support , the showerhead and the capsule support forming an infusion chamber , the showerhead being arranged vertically in register with the receptacle support , said machine being characterized in that it further comprises a control device having at least one function for preparing a milk beverage in a receptacle, while keeping said receptacle on the receptacle support throughout preparation, the control device including an electronic control board that includes at least first and second programs that: - on launching of the first program, actuates said system so as to dispense a first predetermined volume of hot water, the capsule support being removed so that the showerhead produces a jet of hot water directly into the receptacle containing a milk product; and - on launching of the second program, consecutively after launching of the first program, actuates said system so as to dispense a second predetermined volume of hot water, the capsule support being positioned with a capsule so that the showerhead produces a jet of hot water into the infusion chamber . - on launching of the first program, actuates said system so as to dispense a first predetermined volume of hot water, the capsule support being removed so that the showerhead produces a jet of hot water directly into the receptacle containing a milk product; and - on launching of the second program, consecutively after launching of the first program, actuates said system so as to dispense a second predetermined volume of hot water, the capsule support being positioned with a capsule so that the showerhead produces a jet of hot water into the infusion chamber .
A light therapy system , comprising: a lighting assembly operable to create a light output having a controllable illuminance and color temperature; and a controller , operatively coupled to the lighting assembly , characterised in that the controller is adapted to: receive a data input indicating a target melanopic luminous exposure for administration by the lighting assembly; retrieve from a data store one or more melanopic weighting factors corresponding to a relative melanopic effect of different color temperatures of light; create, based on the melanopic weighting factors, a control schedule for controlling the illuminance and color temperature values of the lighting assembly over time such as to deliver in total over a defined treatment period the target melanopic luminous exposure; and control the lighting assembly in accordance with the control schedule . a lighting assembly operable to create a light output having a controllable illuminance and color temperature; and a controller , operatively coupled to the lighting assembly , characterised in that the controller is adapted to: receive a data input indicating a target melanopic luminous exposure for administration by the lighting assembly; retrieve from a data store one or more melanopic weighting factors corresponding to a relative melanopic effect of different color temperatures of light; create, based on the melanopic weighting factors, a control schedule for controlling the illuminance and color temperature values of the lighting assembly over time such as to deliver in total over a defined treatment period the target melanopic luminous exposure; and control the lighting assembly in accordance with the control schedule . receive a data input indicating a target melanopic luminous exposure for administration by the lighting assembly; retrieve from a data store one or more melanopic weighting factors corresponding to a relative melanopic effect of different color temperatures of light; create, based on the melanopic weighting factors, a control schedule for controlling the illuminance and color temperature values of the lighting assembly over time such as to deliver in total over a defined treatment period the target melanopic luminous exposure; and control the lighting assembly in accordance with the control schedule .
A method performed by hardware processing circuitry, comprising: receiving measurements of dynamic feature data for a geographic region ; determining static features for the geographic region ; generating a predicted background noise loudness in the geographic region during a defined time period using a model , wherein the model is trained on training data including historical measurements of dynamic features and historical measurements of static features; characterised in that the method further comprises: determining a route based at least in part on the predicted background noise loudness in the geographic region ; and selecting an aircraft , from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness. receiving measurements of dynamic feature data for a geographic region ; determining static features for the geographic region ; generating a predicted background noise loudness in the geographic region during a defined time period using a model , wherein the model is trained on training data including historical measurements of dynamic features and historical measurements of static features; characterised in that the method further comprises: determining a route based at least in part on the predicted background noise loudness in the geographic region ; and selecting an aircraft , from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness. determining a route based at least in part on the predicted background noise loudness in the geographic region ; and selecting an aircraft , from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness.
A switch cabinet housing with a door element and with at least one hinge arrangement with a first hinge half , which is fastened to a vertical side wall delimiting a door opening or to a vertical profile of a switch cabinet housing , and with a second hinge half , which is fastened to the door element , wherein the hinge halves are connected to one another so as to be pivotable with respect to one another via an axis of rotation (x), so that, in a closed position, the door element closes the door opening and, in an open position, preferably completely releases it, wherein the axis of rotation (x) is arranged outside at outer circumference (U) both of the door opening and of the door element , wherein one of the hinge halves has a groove , via which the hinge half is plugged onto a projection on the outer circumference (U) of that part of the switch cabinet housing and door element which is assigned to the hinge half , wherein the projection has, on its inner side facing away from the outer circumference (U), a fastening means and the hinge half , which is completely plugged onto the projection via its groove , has a further fastening means , which is operatively coupled to the fastening means and via which the second hinge half is fixed in its position in which it is completely plugged onto the projection , wherein the door element is an angled flat part, which has a door side , which, in the closed position of the door element , extends parallel to the door opening and covers the latter, and which has the circumferential 90° angled portion, and wherein the second hinge half is mounted with a second support surface on the 90° angled portion, characterized in that the second hinge half is mounted with a first support surface on the door side .
A method for operating an attribute assertion device having a processor and memory to create an unlinkable digital signature-equivalent of an assertion message that is verifiable, by a service provider receiving the unlinkable digital signature-equivalent on a service provider device having a processor and memory, as being generated from a digital signature of a known attribute provider having a public key PK AP wherein the unlinkable digital signature-equivalent is created by the attribute assertion device and verifiable by the service provider device without the sharing of a secret cryptographic key between the attribute assertion device and the service provider device, the method comprising operating the processor of the attribute assertion device to transform a digital signature of the attribute message into an unlinkable digital signature-equivalent using a one-way transformation of the digital signature using a first random number generated by the attribute assertion device, and a challenge provided by the service provider device, the first random number held as a secret by the attribute assertion device.
A fluidic ejection die , comprising: an array of nozzles, each nozzle comprising: an ejection chamber ; an opening ; and a fluid actuator disposed within the ejection chamber an inlet passage , formed in a substrate , configured to deliver fluid into the ejection chamber; and an outlet passage , formed in the substrate, configured to deliver fluid out of the ejection chamber; and an array of channels, formed on a back surface of the substrate, the array of channels divided into inlet channels and outlet channels , wherein: each inlet channel is fluidly connected to a respective plurality of inlet passages; and each outlet channel is fluidly connected to a respective plurality of outlet passages; characterised in that the fluidic ejection device comprises: a micro-recirculation pump disposed between each inlet passage and outlet passage and configured to circulate the fluid into that inlet passage and out of that outlet passage in a pulsating manner to cause vortices in the fluid in a corresponding outlet channel. an array of nozzles, each nozzle comprising: an ejection chamber ; an opening ; and a fluid actuator disposed within the ejection chamber an inlet passage , formed in a substrate , configured to deliver fluid into the ejection chamber; and an outlet passage , formed in the substrate, configured to deliver fluid out of the ejection chamber; and ejection chamber ; an opening ; and a fluid actuator disposed within the ejection chamber an inlet passage , formed in a substrate , configured to deliver fluid into the ejection chamber; and an outlet passage , formed in the substrate, configured to deliver fluid out of the ejection chamber; and an array of channels, formed on a back surface of the substrate, the array of channels divided into inlet channels and outlet channels , wherein: each inlet channel is fluidly connected to a respective plurality of inlet passages; and each outlet channel is fluidly connected to a respective plurality of outlet passages; each inlet channel is fluidly connected to a respective plurality of inlet passages; and each outlet channel is fluidly connected to a respective plurality of outlet passages;
A filler mixture comprising thermoconductive ZnS particles, wherein the filler mixture of thermoconductive ZnS particles comprises ZnS particles of at least two of three particle size ranges selected from coarse particles, medium particles and small particles, wherein said particles are having a d 50 for coarse particles of 1.5 to 1.0 μm, preferably 1.4 to 1.2 μm, a d 50 for medium particles of 0.7 to 0.5 μm, preferably 0.6 to 0.5 μm, and a d 50 for small particles of 0.45 to 0.15, preferably 0,4 to 0,2 μm , wherein the fraction of the particles in the largest d 50 range is present in the particle mixture in a percentage of 20 wt.-% to 80 wt.-%, preferably 40 wt.-% to 80 wt.-% and more preferably 50 wt-% to 80% wt.-% referred to the weight of all fractions of the particles, the measuring method of the particle size being made as disclosed in the description. wherein said particles are having a d 50 for coarse particles of 1.5 to 1.0 μm, preferably 1.4 to 1.2 μm, a d 50 for medium particles of 0.7 to 0.5 μm, preferably 0.6 to 0.5 μm, and a d 50 for small particles of 0.45 to 0.15, preferably 0,4 to 0,2 μm , wherein the fraction of the particles in the largest d 50 range is present in the particle mixture in a percentage of 20 wt.-% to 80 wt.-%, preferably 40 wt.-% to 80 wt.-% and more preferably 50 wt-% to 80% wt.-% referred to the weight of all fractions of the particles, the measuring method of the particle size being made as disclosed in the description.
An internal combustion engine with external mixture formation, comprising: at least one exhaust tract and at least one intake tract, wherein the intake tract has at least one intake pipe , at least one throttling valve , at least one mixture formation device , at least one compensation vessel and at least one air filter , characterized in that the compensation vessel comprises a compensation vessel inlet and a compensation vessel outlet on one side of the compensation vessel and an outer surface of the compensation vessel opposite to the compensation vessel inlet and the compensation vessel outlet is designed in a step-shaped manner. at least one exhaust tract and at least one intake tract, wherein the intake tract has at least one intake pipe , at least one throttling valve , at least one mixture formation device , at least one compensation vessel and at least one air filter , characterized in that the compensation vessel comprises a compensation vessel inlet and a compensation vessel outlet on one side of the compensation vessel and an outer surface of the compensation vessel opposite to the compensation vessel inlet and the compensation vessel outlet is designed in a step-shaped manner.
A self-locking plug assembly comprising: a body circumscribing a longitudinal centerline , a ratchet ring circumscribing the body , the body including a shank and at least a top portion of the shank being threaded, characterized by the ratchet ring including flexible fingers extending or spiralling away from a periphery of the ratchet ring towards and engaging polygonal sides of the body or of a multi-faceted or polygonal sided ring attached to the body . a body circumscribing a longitudinal centerline , a ratchet ring circumscribing the body , the body including a shank and at least a top portion of the shank being threaded, characterized by the ratchet ring including flexible fingers extending or spiralling away from a periphery of the ratchet ring towards and engaging polygonal sides of the body or of a multi-faceted or polygonal sided ring attached to the body .
A steam cooking apparatus , comprising: a food chamber comprising a base , a rear wall area , first and second opposing side wall areas and a front wall area ; a transparent lid ; a heating arrangement ; a water reservoir ; a circulation system comprising an extraction vent in the rear wall area through which air is drawn from inside the food chamber, and a delivery vent arrangement for delivering air to the food chamber, wherein the delivery vent arrangement comprises: a first delivery vent at a top region of the rear wall area above the extraction vent and extending across at least half of the width of the rear wall area and/or at least half a width of the transparent lid. a food chamber comprising a base , a rear wall area , first and second opposing side wall areas and a front wall area ; a transparent lid ; a heating arrangement ; a water reservoir ; a circulation system comprising an extraction vent in the rear wall area through which air is drawn from inside the food chamber, and a delivery vent arrangement for delivering air to the food chamber, wherein the delivery vent arrangement comprises: a first delivery vent at a top region of the rear wall area above the extraction vent and extending across at least half of the width of the rear wall area and/or at least half a width of the transparent lid.
A method for controlling an intaglio printing, particularly for the printing of paper securities, in particular of bank notes, said intaglio printing involving: (i) the inking of at least one intaglio printing plate with at least one intaglio ink; (ii) the wiping of the thus inked intaglio printing plate ; and (iii) the printing of a substrate by means of the thus wiped intaglio printing plate , the printing of the substrate involving the application of the substrate against the intaglio printing plate at a printing pressure, the printing pressure, the ink load and the wiping constituting printing parameters that may affect said intaglio printing, where the control method includes the following steps: (a) defining, on the intaglio printing plate , control ranges (150, 151 to 155, 170, 171 to 179) designed to allow the evaluation of the effects of the printing pressure applied during printing (iii) of the substrate and the evaluation of the effects of the ink load applied during inking (i) of the intaglio printing plate , which control ranges (150, 151 to 155; 170, 171 to 179) are engraved in a portion of the intaglio printing plate in order to produce corresponding printed control areas (160, 161 to 165) on said substrate; (b) performing measurements in said printed control areas allowing the evaluation of the printing pressure applied during printing (iii) of the substrate; and (c) performing measurements in said printed control areas allowing the evaluation of the ink load applied during inking (i) of the intaglio printing plate ; and wherein the printing pressure and the ink load are adjusted until the measurements performed in said printed control areas reflect an optimal balance between the printing pressure and the ink load. (i) the inking of at least one intaglio printing plate with at least one intaglio ink; (ii) the wiping of the thus inked intaglio printing plate ; and (iii) the printing of a substrate by means of the thus wiped intaglio printing plate , the printing of the substrate involving the application of the substrate against the intaglio printing plate at a printing pressure, (a) defining, on the intaglio printing plate , control ranges (150, 151 to 155, 170, 171 to 179) designed to allow the evaluation of the effects of the printing pressure applied during printing (iii) of the substrate and the evaluation of the effects of the ink load applied during inking (i) of the intaglio printing plate , which control ranges (150, 151 to 155; 170, 171 to 179) are engraved in a portion of the intaglio printing plate in order to produce corresponding printed control areas (160, 161 to 165) on said substrate; (b) performing measurements in said printed control areas allowing the evaluation of the printing pressure applied during printing (iii) of the substrate; and (c) performing measurements in said printed control areas allowing the evaluation of the ink load applied during inking (i) of the intaglio printing plate ;
An elastomeric laminate , comprising: a plurality of elastic strands between of first and second nonwovens; wherein the plurality of elastic strands has an Average-Strand-Spacing from 0.25 mm to 4 mm; wherein the plurality of elastic strands has an Average-Dtex from 10 to 400, as measured according to the test method set out herein; wherein the plurality of elastic strands has an Average-Pre-Strain from 50% to 300%, as measured according to the test method set out herein; wherein a Peel-Strength between the first and second nonwovens is from 1 N/cm to 15 N/cm, as measured according to the test method set out herein; wherein a plurality of densified bonds joins the first and second nonwovens together; wherein the plurality of densified bonds is discrete and spaced from each other; wherein the plurality of densified bonds overlaps and at least partially surround portions of the plurality of elastic strands ; wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand and of at least one of the first and second nonwovens is from 1.5 to 10; wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands is from 65:1 to 150:1; and wherein the elastomeric laminate forms at least a portion of a disposable absorbent article. a plurality of elastic strands between of first and second nonwovens; wherein the plurality of elastic strands has an Average-Strand-Spacing from 0.25 mm to 4 mm; wherein the plurality of elastic strands has an Average-Dtex from 10 to 400, as measured according to the test method set out herein; wherein the plurality of elastic strands has an Average-Pre-Strain from 50% to 300%, as measured according to the test method set out herein; wherein a Peel-Strength between the first and second nonwovens is from 1 N/cm to 15 N/cm, as measured according to the test method set out herein; wherein a plurality of densified bonds joins the first and second nonwovens together; wherein the plurality of densified bonds is discrete and spaced from each other; wherein the plurality of densified bonds overlaps and at least partially surround portions of the plurality of elastic strands ; wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand and of at least one of the first and second nonwovens is from 1.5 to 10; wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands is from 65:1 to 150:1; and wherein the elastomeric laminate forms at least a portion of a disposable absorbent article.