mhurhangee/ep-ind-claims huggingface dataset:
Method for batchwise transfer of at least one type of individual products per batch into at least one type of containers accommodating a particular filling quantity of individual products by means of a robotic line which comprises at least two insertion robots (4a, 4b, 4c) arranged in a transfer region between an inlet and an outlet, wherein the individual products are transported irregularly at the inlet of the robotic line in order to transfer these individually into containers in the transfer region of the robotic line of the insertion robots, wherein the individual products and the containers are transported in the same flow on one product belt or several product belts (6; 6a, 6b, 6c) and on one container belt or several container belts (7; 7a, 7b, 7c) and wherein a maximum frequency for all the transported individual products is predetermined for each batch, characterised in that depending on each batch - a speed is predetermined for each product belt (6; 6a, 6b, 6c) and for each container belt (7; 7a, 7b, 7c) such that each product belt and each container belt has a constant relative speed with respect to a slowest container belt (7; 7a, 7b, 7c) which in particular is different from zero, and furthermore - a counting position is predetermined for each product belt (6; 6a, 6b, 6c) in such a way that - an individual product counted at the counting position and not transferred reaches a target position at the same time as a container which is simultaneously channelled into the inlet of the transfer region of the robotic line on the slowest container belt (7; 7a, 7b, 7c), - wherein the target position coincides with an outlet from the transfer region of the robotic line when each product belt and each container belt are moved with the speed predetermined depending on each batch, wherein, during the transfer, the individual products on each product belt (6; 6a, 6b, 6c) are counted at the allocated counting position (8; 8a, 8b, 8c) and, depending on a deviation from the batchwise predetermined maximum frequency of the transported individual products, a current speed of the slowest container belt is adjusted in such a way that the target position reached at the same time with regard to the outlet of the transfer region is offset towards the counting position. - a speed is predetermined for each product belt (6; 6a, 6b, 6c) and for each container belt (7; 7a, 7b, 7c) such that each product belt and each container belt has a constant relative speed with respect to a slowest container belt (7; 7a, 7b, 7c) which in particular is different from zero, and furthermore - a counting position is predetermined for each product belt (6; 6a, 6b, 6c) in such a way that - an individual product counted at the counting position and not transferred reaches a target position at the same time as a container which is simultaneously channelled into the inlet of the transfer region of the robotic line on the slowest container belt (7; 7a, 7b, 7c), - wherein the target position coincides with an outlet from the transfer region of the robotic line when each product belt and each container belt are moved with the speed predetermined depending on each batch,
A vibration mitigation coating for an integrally bladed rotor, wherein the integrally bladed rotor comprises a disk including an interior radius proximate an axis and an exterior radius distal from said axis, said disk including a substrate with an external surface, said external surface extending from said interior radius to said exterior radius; wherein the vibration mitigation coating comprises a damping material disposed directly onto the external surface of the substrate; characterized in that the thickness of the damping material varies across a width of the damping material to create a shaped cross-section. wherein the vibration mitigation coating comprises a damping material disposed directly onto the external surface of the substrate; characterized in that the thickness of the damping material varies across a width of the damping material to create a shaped cross-section.
A state detection sensor that is configured to output a sensor signal corresponding to a state of a sensing subject (1, 403, 504, 507), the state detection sensor comprising: a first heat flux sensor that is configured to output a first sensor signal, wherein the first sensor signal corresponds to a heat flux, which passes through the first heat flux sensor; a second heat flux sensor that is configured to output a second sensor signal, wherein the second sensor signal corresponds to a heat flux, which passes through the second heat flux sensor, characterized in that the state detection sensor further comprises a thermal buffer body that has a predetermined heat capacity; and a heat releasing body that has a predetermined heat capacity, wherein: the first heat flux sensor, the thermal buffer body, the second heat flux sensor and the heat releasing body are arranged in this order from the sensing subject (1, 403, 504, 507) side; the first heat flux sensor is configured to output the first sensor signal, which corresponds to the heat flux between the sensing subject (1, 403, 504, 507) and the thermal buffer body; and the second heat flux sensor is configured to output the second sensor signal, which corresponds to the heat flux between the thermal buffer body and the heat releasing body. a first heat flux sensor that is configured to output a first sensor signal, wherein the first sensor signal corresponds to a heat flux, which passes through the first heat flux sensor; a second heat flux sensor that is configured to output a second sensor signal, wherein the second sensor signal corresponds to a heat flux, which passes through the second heat flux sensor, characterized in that the state detection sensor further comprises a thermal buffer body that has a predetermined heat capacity; and a heat releasing body that has a predetermined heat capacity, wherein: the first heat flux sensor, the thermal buffer body, the second heat flux sensor and the heat releasing body are arranged in this order from the sensing subject (1, 403, 504, 507) side; the first heat flux sensor is configured to output the first sensor signal, which corresponds to the heat flux between the sensing subject (1, 403, 504, 507) and the thermal buffer body; and the second heat flux sensor is configured to output the second sensor signal, which corresponds to the heat flux between the thermal buffer body and the heat releasing body. the first heat flux sensor, the thermal buffer body, the second heat flux sensor and the heat releasing body are arranged in this order from the sensing subject (1, 403, 504, 507) side; the first heat flux sensor is configured to output the first sensor signal, which corresponds to the heat flux between the sensing subject (1, 403, 504, 507) and the thermal buffer body; and the second heat flux sensor is configured to output the second sensor signal, which corresponds to the heat flux between the thermal buffer body and the heat releasing body.
A flow control device for placement in a urine flow lumen of a catheter intermediate a patient's bladder and a urine collection bag, the flow control device comprising: a magnet housing having a stationary magnet at a first longitudinal end of said magnet housing, said magnet housing having an aperture formed therein at a second longitudinal end of said magnet housing opposite said first longitudinal end; a flap magnet disposed at said second longitudinal end and for being attracted to said stationary magnet and held against said magnet housing counter to pressure of a fluid acting on said flap magnet, said stationary magnet and said flap magnet sized for having an attraction force set to a predetermined value, which when exceeded by the pressure of the fluid acting on said flap magnet at said aperture, results in said flap magnet pivoting away from said aperture at an angle while remaining at least partially in contact with said magnet housing. a magnet housing having a stationary magnet at a first longitudinal end of said magnet housing, said magnet housing having an aperture formed therein at a second longitudinal end of said magnet housing opposite said first longitudinal end; a flap magnet disposed at said second longitudinal end and for being attracted to said stationary magnet and held against said magnet housing counter to pressure of a fluid acting on said flap magnet, said stationary magnet and said flap magnet sized for having an attraction force set to a predetermined value, which when exceeded by the pressure of the fluid acting on said flap magnet at said aperture, results in said flap magnet pivoting away from said aperture at an angle while remaining at least partially in contact with said magnet housing.
Apparatus comprising: a user interface for causing display of content generated by a software application associated with a processor and for receiving user inputs in relation to the presented content to effect interactions with the software application in accordance with a user interface configuration; a mode selector for selecting between first and second modes of operation of the apparatus; a user interface controller operable to provide, for a given set of application content caused to be displayed by the user interface, different first and second user interface configurations, and to effect one of the first and second user interface configurations dependent on the selected mode of operation; wherein the apparatus is further configured such that content is not caused to be removed from the display in response to the mode selector switching from the first mode of operation to the second mode of operation, the first mode being an unlocked mode of the apparatus and the second mode being a partial locked mode of the apparatus. a user interface for causing display of content generated by a software application associated with a processor and for receiving user inputs in relation to the presented content to effect interactions with the software application in accordance with a user interface configuration; a mode selector for selecting between first and second modes of operation of the apparatus; a user interface controller operable to provide, for a given set of application content caused to be displayed by the user interface, different first and second user interface configurations, and to effect one of the first and second user interface configurations dependent on the selected mode of operation; wherein the apparatus is further configured such that content is not caused to be removed from the display in response to the mode selector switching from the first mode of operation to the second mode of operation, the first mode being an unlocked mode of the apparatus and the second mode being a partial locked mode of the apparatus.
A humidifier (12; 50; 112) configured to humidify a flow of breathable gas to be delivered to a patient at a target humidity, the humidifier comprising: a porous heating element (24; 25; 52) made of thermally conductive material configured to generate heat to vaporise a liquid that is passed therethrough, at least a portion of the porous heating element (24; 25; 52) being isolated from the flow of breathable gas; a water supply unit; and a controller, wherein the controller is configured to: determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity. a porous heating element (24; 25; 52) made of thermally conductive material configured to generate heat to vaporise a liquid that is passed therethrough, at least a portion of the porous heating element (24; 25; 52) being isolated from the flow of breathable gas; a water supply unit; and a controller, wherein the controller is configured to: determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity. determine an ambient humidity; calculate an amount of liquid to be added to the flow of breathable gas based on the determined ambient humidity and the target humidity; calculate an amount of energy required to vaporise the amount of liquid; control the water supply unit to deliver the amount of liquid to the porous heating element (24; 25; 52); and energise the porous heating element (24; 25; 52) with the amount of energy to vaporise the amount of liquid to deliver the vaporised liquid to the flow of breathable gas, whereby the flow of breathable gas is humidified to the target humidity.
A process for producing fermentable sugars from cellulosic biomass comprising: a) providing in a reaction vessel a reaction mixture comprising: i) an initial solids concentration of cellulosic biomass of between 40% and 70%, measured as percent of dry biomass relative to the total mixture on a weight to weight basis; and ii) ammonia, having a loading concentration of between 4% and 24% relative to dry weight of the biomass; b) maintaining the reaction mixture between a temperature of 100 °C and 230 °C for a pretreatment reaction time having a starting time of t 0 and a final time of t n to produce a pretreated biomass, wherein at time t 0 the solids concentration of the reaction mixture is the initial solids concentration; and c) contacting the pretreated biomass with a saccharification enzyme consortium under suitable conditions to produce fermentable sugars; characterised by increasing the liquid content of the reaction mixture over the pretreatment reaction time of t 0 to t n in a gradient manner, whereby the solids concentration decreases by between 20% and 30% as compared to the initial solids concentration, to produce the pretreated biomass. a) providing in a reaction vessel a reaction mixture comprising: i) an initial solids concentration of cellulosic biomass of between 40% and 70%, measured as percent of dry biomass relative to the total mixture on a weight to weight basis; and ii) ammonia, having a loading concentration of between 4% and 24% relative to dry weight of the biomass; i) an initial solids concentration of cellulosic biomass of between 40% and 70%, measured as percent of dry biomass relative to the total mixture on a weight to weight basis; and ii) ammonia, having a loading concentration of between 4% and 24% relative to dry weight of the biomass; b) maintaining the reaction mixture between a temperature of 100 °C and 230 °C for a pretreatment reaction time having a starting time of t 0 and a final time of t n to produce a pretreated biomass, wherein at time t 0 the solids concentration of the reaction mixture is the initial solids concentration; and c) contacting the pretreated biomass with a saccharification enzyme consortium under suitable conditions to produce fermentable sugars;
A Ni ball, having: a purity which is equal to or higher than 99.9% and equal to or lower than 99.995%, a content of U is equal to or less than 5 ppb; a content of Th is equal to or less than 5 ppb; an alpha dose is equal to or less than 0.0200 cph/cm 2; a sphericity, being an arithmetic mean value calculated by dividing a diameter of each of 500 Ni balls by a length of the longest axis of each Ni ball, which is equal to or higher than 0.90, and a Vickers hardness which is equal to or higher than 20HV and equal to or less than 90HV as measured in accordance with Vickers hardness test method JIS Z2244. a purity which is equal to or higher than 99.9% and equal to or lower than 99.995%, a content of U is equal to or less than 5 ppb; a content of Th is equal to or less than 5 ppb; an alpha dose is equal to or less than 0.0200 cph/cm 2; a sphericity, being an arithmetic mean value calculated by dividing a diameter of each of 500 Ni balls by a length of the longest axis of each Ni ball, which is equal to or higher than 0.90, and a Vickers hardness which is equal to or higher than 20HV and equal to or less than 90HV as measured in accordance with Vickers hardness test method JIS Z2244.
A method for predicting the outcome of a liver transplantation for treatment of hepatocellular carcinoma, comprising - in a determination step, determining the expression level of each of a group of indicator genes comprising: a. clusterin (CLU, Gene ID GC08M027596), and b. dermatopontin (DPT, Gene ID GC01M168664) in a liver sample obtained from a patient suffering from HCC, - in a classification step, assigning a patient a good prognosis as an outcome for liver transplantation based on the expression level of the indicator genes. - in a determination step, determining the expression level of each of a group of indicator genes comprising: a. clusterin (CLU, Gene ID GC08M027596), and b. dermatopontin (DPT, Gene ID GC01M168664) in a liver sample obtained from a patient suffering from HCC, a. clusterin (CLU, Gene ID GC08M027596), and b. dermatopontin (DPT, Gene ID GC01M168664) - in a classification step, assigning a patient a good prognosis as an outcome for liver transplantation based on the expression level of the indicator genes.
A cam rotary switch with double positive break contacts comprising a body including at least two components (1, 2) coupled with each other and enclosing fixed electrical contact elements (5, 6), one shaft torsionally integral with a control device projecting from a first of such components (1, 2), said shaft having a widened extremal part internal to the body of the switch and shaped in such a way as to selectively connect such fixed electrical contacts (5, 6) via a movement of movable contacts internal to said body, characterized in that said fixed contacts (5, 6) co-operating with electrical connection members (33, 33K) projecting beyond the second component of said body, said members (33, 33K) being suitable for being soldered on a board carrying a printed circuit, and in that every electrical connection member (33, 33K) is fixed by way of a terminal to its corresponding fixed electrical contact element (5, 6).
A 3D gesture recognition system, comprising: an RF-based 3D gesture detection assembly (100; 300) including an RF sensor cell array (102; 302; 502), a controller (106; 306), a sensor cell driver (108; 308), and a switching network (110; 310), the sensor cell driver (108, 308) being configured to send signals at different frequencies to individual RF sensor cells (104; 304; 504) of the RF sensor cell array, the switching network (110; 310) being connected to the sensor cell driver and configured to direct the signals from the sensor cell driver to the individual RF sensor cells (104; 304; 504) of the RF sensor cell array, and to direct responses from the individual RF sensor cells (104; 304; 504) of the RF sensor cell array to the controller, the controller (106; 306) being connected to the sensor cell driver and to the switching network and configured to control the sensor cell driver and the switching network to send to the individual RF sensor cells of the RF sensor cell array a first signal at a first frequency before sending a second signal at a second frequency, and to receive first and second responses of the individual RF sensor cells respectively to the first and second signals, wherein the first and second frequencies are different and from a set of available frequencies; and a gesture recognition component configured to identify a 3D gesture performed by an object proximate the RF sensor cell array from the first and second responses of the individual RF sensor cells respectively to the first and second signals. an RF-based 3D gesture detection assembly (100; 300) including an RF sensor cell array (102; 302; 502), a controller (106; 306), a sensor cell driver (108; 308), and a switching network (110; 310), the sensor cell driver (108, 308) being configured to send signals at different frequencies to individual RF sensor cells (104; 304; 504) of the RF sensor cell array, the switching network (110; 310) being connected to the sensor cell driver and configured to direct the signals from the sensor cell driver to the individual RF sensor cells (104; 304; 504) of the RF sensor cell array, and to direct responses from the individual RF sensor cells (104; 304; 504) of the RF sensor cell array to the controller, the controller (106; 306) being connected to the sensor cell driver and to the switching network and configured to control the sensor cell driver and the switching network to send to the individual RF sensor cells of the RF sensor cell array a first signal at a first frequency before sending a second signal at a second frequency, and to receive first and second responses of the individual RF sensor cells respectively to the first and second signals, wherein the first and second frequencies are different and from a set of available frequencies; and a gesture recognition component configured to identify a 3D gesture performed by an object proximate the RF sensor cell array from the first and second responses of the individual RF sensor cells respectively to the first and second signals.
A method, comprising: identifying a first point on an object striking element (120, 140, 160) in both a first image and a second image from a sequence of images received from a single imager, wherein the first and second images are captured within a predetermined time span of an impact of an object (110, 130, 150) with the object striking element (120, 140, 160); determining an impact time of the impact of the object (110, 130, 150) with the object striking element (120, 140, 160); determining a position in at least one of the first and second images corresponding to a location of the object (110, 130, 150) at the impact time; based on the positions of the first point in the first and second images, determining a position in at least one of the first and second images corresponding to a position of the first point at the impact time; determining a distance from the imager to a location at which the object (110, 130, 150) and the object striking element (120, 140, 160) impact one another; and determining an impact location of the object (110, 130, 150) relative to the first point. identifying a first point on an object striking element (120, 140, 160) in both a first image and a second image from a sequence of images received from a single imager, wherein the first and second images are captured within a predetermined time span of an impact of an object (110, 130, 150) with the object striking element (120, 140, 160); determining an impact time of the impact of the object (110, 130, 150) with the object striking element (120, 140, 160); determining a position in at least one of the first and second images corresponding to a location of the object (110, 130, 150) at the impact time; based on the positions of the first point in the first and second images, determining a position in at least one of the first and second images corresponding to a position of the first point at the impact time; determining a distance from the imager to a location at which the object (110, 130, 150) and the object striking element (120, 140, 160) impact one another; and determining an impact location of the object (110, 130, 150) relative to the first point.