mhurhangee/ep-ind-claims huggingface dataset:
A method for providing a user interface for controlling an appliance in a network of distributed stations, wherein the method comprises the following steps: - providing a first user interface for an appliance to be controlled, wherein the first user interface includes a first set of control elements for the appliance to be controlled and a first list of appliances (14, 15) which are connected to the network and for which the appliance to be controlled is a source or a sink; - receiving a user selection of one of the appliances from the first list of connected appliances (14, 15); - providing a second user interface for the appliance selected from the first list, wherein the second user interface includes a second list of one or more appliances connected to the network for which the selected appliance is a source or a sink and includes a second set of control elements for the selected appliance, wherein the second set of control elements is different from the first set of control elements. - providing a first user interface for an appliance to be controlled, wherein the first user interface includes a first set of control elements for the appliance to be controlled and a first list of appliances (14, 15) which are connected to the network and for which the appliance to be controlled is a source or a sink; - receiving a user selection of one of the appliances from the first list of connected appliances (14, 15); - providing a second user interface for the appliance selected from the first list, wherein the second user interface includes a second list of one or more appliances connected to the network for which the selected appliance is a source or a sink and includes a second set of control elements for the selected appliance, wherein the second set of control elements is different from the first set of control elements.
A method for preparing assorted livestock feed, the method comprising: (a) preparing a liquid yeast culture by inoculating yeast cells into liquid medium and culturing them; (b) selecting raw materials for assorted feed and mixing; (c) forming the mixed raw materials into pellets via a pellet forming device; (d) cooling the formed pellets; (e) spraying the liquid yeast culture obtained in step (a) to the external surface of the cooled pellets; and (f) cooling the pellets on which the liquid yeast culture has been sprayed. (a) preparing a liquid yeast culture by inoculating yeast cells into liquid medium and culturing them; (b) selecting raw materials for assorted feed and mixing; (c) forming the mixed raw materials into pellets via a pellet forming device; (d) cooling the formed pellets; (e) spraying the liquid yeast culture obtained in step (a) to the external surface of the cooled pellets; and (f) cooling the pellets on which the liquid yeast culture has been sprayed.
A lighting system comprising: a grid input configured for connection to an external grid power supply; an LED luminaire system comprising a set of multiple luminaires (L1-L32), each luminaire comprising an LED lighting unit (30a-30d) and a driver (24; 24a-24d) connected to the grid input configured to inject current into the LED lighting unit from the external grid power supply; and a solar input configured for connection to a solar panel; a solar converter connected to the solar input configured to convert the output from the solar panel into a first power; a connection unit configured to connect the LED lighting units of the set of the multiple luminaires together and to the solar converter and thereby the LED lighting units of the set of multiple luminaires are adapted to share the first power, characterized in that the respective driver of each luminaire and the solar converter are in parallel connection with the respective LED lighting unit of the luminaire, and the solar converter and the respective driver of each luminaire are adapted to drive the respective LED lighting unit of the luminaire simultaneously. a grid input configured for connection to an external grid power supply; an LED luminaire system comprising a set of multiple luminaires (L1-L32), each luminaire comprising an LED lighting unit (30a-30d) and a driver (24; 24a-24d) connected to the grid input configured to inject current into the LED lighting unit from the external grid power supply; and a solar input configured for connection to a solar panel; a solar converter connected to the solar input configured to convert the output from the solar panel into a first power; a connection unit configured to connect the LED lighting units of the set of the multiple luminaires together and to the solar converter and thereby the LED lighting units of the set of multiple luminaires are adapted to share the first power, characterized in that the respective driver of each luminaire and the solar converter are in parallel connection with the respective LED lighting unit of the luminaire, and the solar converter and the respective driver of each luminaire are adapted to drive the respective LED lighting unit of the luminaire simultaneously.
A compound of the formula: wherein X is: R 1 is H, -CN, or F; R 2 is H or methyl; R 3 is H; and R 4 is H, methyl, or ethyl; or R 3 and R 4 joined together form a cyclopropyl ring; or a pharmaceutically acceptable salt thereof. wherein X is: R 1 is H, -CN, or F; R 2 is H or methyl; R 3 is H; and R 4 is H, methyl, or ethyl; or R 3 and R 4 joined together form a cyclopropyl ring; or a pharmaceutically acceptable salt thereof.
Motor vehicle headlights with a multi-functional projection module designed to transmit light from an initial light source in an initial beam path into an initial light spread located in the forefield of the projection module, and to transmit light from a second light source in a second beam path into a second light spread located in the forefield of the projection module, and which exhibits a screen with a screen rim that borders the part of the screen entering into the first and second beam paths, and which is presented as a brightness-darkness contract of the first light spread and the second light spread, whereby a bright area of the first light spread is located in a dark area of the second light spread, and a bright area of the second light spread is located in a dark area of the first light spread, whereby the screen is a compound of a transparent support body and a layer made from a different material than the transparent support body, whereby the transparent support body exhibits a light entry side, a light exit side, and a screen surface bordered by the light exit side and onto which the layer is attached, whereby each beam path exhibits at least one independently controllable light source (16, 22) and at least one primary optical element (20, 24) used to create a light spread in an interim projection plane in each beam path located in the sharpness plane/Petzval surface of a shared projection lens and from which it is projected onto the road, distinguished by the fact that the primary optical elements (20, 24) are designed as light-guiding instruments that exhibit a light coupling side and a side surface, whereby the light coupling side of the primary optical element is located opposite its decoupling side and whereby the light coupling side and the light decoupling side are shaped in such a way that their refraction forms a convergent lens that directs the light into the desired area near the screen rim and onto the layer and whereby the side surface is designed in such a way that it redirects the light from the light coupling side onto the light decoupling surface via internal total reflections so that this light also helps illuminate the area around the screen rim.
An absorbent article comprising a nonwoven laminate comprising: a) a first nonwoven layer comprising first continuous filaments; b) a second nonwoven layer comprising second continuous filaments; c) a third nonwoven layer comprising fine fibers, said second nonwoven layer between said first and third nonwoven layers; and d) an optional fourth nonwoven layer comprising second continuous filaments; said nonwoven laminate is characterized in that 1) said first and said second continuous filaments have cross-sectional shapes that are distinct from one another; 2) said second nonwoven layer and said optional fourth nonwoven layer each have a basis weight of less than 5 g/m 2, preferably less than 4 g/m 2; and 3) the total basis weight of the first, second, and third layers is not greater than about 55 g/m 2; and 4) said cross-sectional shape of the first continuous filaments is trilobal. a) a first nonwoven layer comprising first continuous filaments; b) a second nonwoven layer comprising second continuous filaments; c) a third nonwoven layer comprising fine fibers, said second nonwoven layer between said first and third nonwoven layers; and d) an optional fourth nonwoven layer comprising second continuous filaments; 1) said first and said second continuous filaments have cross-sectional shapes that are distinct from one another; 2) said second nonwoven layer and said optional fourth nonwoven layer each have a basis weight of less than 5 g/m 2, preferably less than 4 g/m 2; and 3) the total basis weight of the first, second, and third layers is not greater than about 55 g/m 2; and 4) said cross-sectional shape of the first continuous filaments is trilobal.
Household appliance operating device, in particular hob operating device (10a; 10b), having at least one touch sensor unit (12a; 12b), having at least one electrode (14a; 14b) allocated to the touch sensor unit (12a; 12b), wherein the electrode (14a; 14b) comprises at least one first sensor region (16a; 16b) and at least one electrically conductive second sensor region (18a; 18b) connected to the first sensor region (16a; 16b), and having at least one region (20a; 20b) formed differently from the electrode (14a; 14b) and arranged between the first sensor region (16a; 16b) and the second sensor region (18a; 18b), characterised in that the first sensor region (16a; 16b) and the second sensor region (18a; 18b) are provided to trigger the touch sensor unit (12a; 12b) only when they are jointly approached and/or touched by an operator, and the region (20a; 20b) has, along at least one connection length (22a; 22b) from the first sensor region (16a; 16b) to the second sensor region (18a; 18b), an extension (24a; 24b) of at least 5 mm.
Differential protection device comprising: - differential current measurement means, - processing means connected to the measurement means to receive a signal representative of a differential current, said processing means comprising operating rating selection means (14; 108) and time delay selection means (16; 110) for selecting trip curves, and - actuator means for opening main contacts of the circuit breaker as a function of the selection of the trip curves, and - test means (31 to 38) connected to the measurement means, characterized in that the test means are associated with the operating rating selection means and with the time delay selection means, for selecting a minimum or reduced operating rating and for selecting a minimum or reduced time delay, when said test means are actuated. - differential current measurement means, - processing means connected to the measurement means to receive a signal representative of a differential current, said processing means comprising operating rating selection means (14; 108) and time delay selection means (16; 110) for selecting trip curves, and - actuator means for opening main contacts of the circuit breaker as a function of the selection of the trip curves, and - test means (31 to 38) connected to the measurement means, characterized in that the test means are associated with the operating rating selection means and with the time delay selection means, for selecting a minimum or reduced operating rating and for selecting a minimum or reduced time delay, when said test means are actuated.
A method of controlling a temperature of a decoating system with a cooling system, the method comprising: measuring a temperature within a piece of equipment of the decoating system; measuring a coolant characteristic of a coolant dispensed by a sprayer of the cooling system into the piece of equipment of the decoating system and receiving the measured coolant characteristic; and using a coolant control device to adjust the coolant characteristic based on at least one of the measured temperature or the measured coolant characteristic such that the cooling system provides at least one of a desired temperature or a desired coolant characteristic with the coolant, characterized in that the coolant characteristic is a fluid pressure of the coolant, wherein the coolant control device is a pressure control device, and wherein adjusting the coolant control device comprises selectively controlling the fluid pressure of the coolant with the pressure control device based on the measured temperature and the measured fluid pressure. measuring a temperature within a piece of equipment of the decoating system; measuring a coolant characteristic of a coolant dispensed by a sprayer of the cooling system into the piece of equipment of the decoating system and receiving the measured coolant characteristic; and using a coolant control device to adjust the coolant characteristic based on at least one of the measured temperature or the measured coolant characteristic such that the cooling system provides at least one of a desired temperature or a desired coolant characteristic with the coolant, characterized in that the coolant characteristic is a fluid pressure of the coolant, wherein the coolant control device is a pressure control device, and wherein adjusting the coolant control device comprises selectively controlling the fluid pressure of the coolant with the pressure control device based on the measured temperature and the measured fluid pressure.
A stowable roof of a convertible vehicle, said roof comprising, on either side of the vehicle, a column part which seals a side window of the convertible vehicle in the closed state and protrudes upwards from the area of a window sill line of a vehicle body, said column part being movable in order to open the roof, via a first multiple joint with parallel axes, in a generally rearward and downward direction and, in doing so, performing a partially overlapping movement with a component in the transverse direction of the vehicle at least over a part of the roof opening movement, wherein a spatial joint assembly is provided in order to effect said transverse movement of the movable area of the column part, said spatial joint assembly being movable along with the roof during the opening and closing of the latter, characterised in that the spatial joint assembly forms a spherical joint whose axes (13;14;15) all intersect in exactly one point of intersection, wherein the point of intersection of the axes (13;14;15) of the spatial joint assembly is located on one of the joint axes of the first multiple joint, and wherein the first multiple joint comprises at least two upper joint axes which, when the roof is closed, are located in the transition area between a rear roof part, which extends obliquely downwards and comprises a rear window, and a forward roof part, which is arranged nearly horizontally above an occupant space, and the point of intersection of the spatial joint assembly is located on one of said upper joint axes, wherein said spatial joint assembly comprises a first axis which has a small bending angle with respect to the upper joint axis of the planar multiple joint, on which the point of intersection of the axes (11; 13) is located, and second and third axes (14; 15) of the spatial joint assembly extend through the point of intersection, said second and third axes (14;15) substantially following the course of the column part, with said second and third axes (14;15) leading to a lower hinge that connects a part of the main column, which is not movable in a transverse direction, to the column part, which is movable transversely inwards.
Method for process parameters optimization in a chip removal machining, which allows to maximize productivity while observing the maximum allowable wear limit for the tool, comprising the steps of: a. defining the boundary conditions of the process, said conditions comprising at least the material to be worked and the type of tool used; b. defining the process parameters to be used for the tool wear estimation, said parameters comprising at least: tool-material contact time (t), cutting speed (v) and advancement (a), and defining for each one of said parameters a variability range within which the research for optimal values is to be carried out; c. defining an experiments plan in which, for determined values of said parameters, the tool wear is analysed at distinct time intervals and carrying out said experiments plan; d. on the basis of the data collected at point c. estimating a regression equation that estimates the dependence of the tool wear lip on said process parameters; e. solving an optimization problem in which the values of said process parameters are determined, which allow the production time to be reduced at minimum and the quantity of tools used to be reduced at minimum: characterized in that: in solving this optimization problem in point e. the observation of a maximum wear value (VBLim) of the wear lip is imposed as strict condition and in that for the estimation of the dependence of wear lip on process parameters, the relationship estimated in point d is used. a. defining the boundary conditions of the process, said conditions comprising at least the material to be worked and the type of tool used; b. defining the process parameters to be used for the tool wear estimation, said parameters comprising at least: tool-material contact time (t), cutting speed (v) and advancement (a), and defining for each one of said parameters a variability range within which the research for optimal values is to be carried out; c. defining an experiments plan in which, for determined values of said parameters, the tool wear is analysed at distinct time intervals and carrying out said experiments plan; d. on the basis of the data collected at point c. estimating a regression equation that estimates the dependence of the tool wear lip on said process parameters; e. solving an optimization problem in which the values of said process parameters are determined, which allow the production time to be reduced at minimum and the quantity of tools used to be reduced at minimum: characterized in that: in solving this optimization problem in point e. the observation of a maximum wear value (VBLim) of the wear lip is imposed as strict condition and in that for the estimation of the dependence of wear lip on process parameters, the relationship estimated in point d is used. in solving this optimization problem in point e. the observation of a maximum wear value (VBLim) of the wear lip is imposed as strict condition and in that for the estimation of the dependence of wear lip on process parameters, the relationship estimated in point d is used.
Method for determining by an electric meter an electrical energy consumed by an electrical installation supervised by said electric meter, an electric current signal being supplied to the electric meter for supplying said electrical installation, the electrical signal being able to be symmetrical or asymmetrical, the method being such that, during periods of observation (502, 514) of the electrical current signal by the electric meter during which the electric current signal is considered to be symmetrical, the electrical meter determines a continuous component of the signal of electric current, and determines the electrical energy consumed during said observation periods by removing the determined continuous component; the method being characterized in that, during periods of observation (504, 505) of the electric current signal by the electric meter during which said electric current signal is considered asymmetrical, the electric meter determines the electrical energy consumed during said observation periods by removing a determined DC component during at least one previous observation period during which the electric current signal supplied to the electric meter is symmetrical.
Protein preparation consisting of protein particles, of which each protein particle consists of a plurality of plant protein molecules, each of which has at least one hydrophilic moiety and at least one hydrophobic moiety, which protein molecules are arranged adjacent to each other in such manner that the protein particle has a predominantly hydrophobic surface and the protein content of the protein particles constitutes >75 wt%, preferably >85 wt% of the dry mass, wherein the protein preparation contains oil and has a dry substance content greater than 30 wt%, and wherein the content of the oil in the preparation exceeds values of 1 wt% relating to the dry substance content.
A process for removing carbon dioxide from a process gas, with a solid adsorbent and temperature swing adsorption, wherein - carbon dioxide removal from said process gas takes place alternately in at least a first bed of said solid adsorbent and a second bed of said solid adsorbent, the first bed being regenerated while carbon dioxide contained in the incoming process gas is adsorbed in the second bed and vice-versa, so that the adsorbent material of said first bed and of said second bed is alternately loaded with carbon dioxide, - the incoming process gas is subjected to an indirect heat exchange with the CO2-loaded adsorbent of either said first bed or said second bed, thus cooling said incoming process gas while heating and regenerating said CO2-loaded adsorbent, - carbon dioxide is then removed from the cooled process gas while contacting said gas with adsorbent of the other bed, and - the bed(s) of CO2-loaded adsorbent is kept in a closed environment while heated and regenerated by the indirect heat exchange with said process gas, so that heating of the CO2-loaded adsorbent takes place in a constant volume and pressure inside said closed environment increases while the carbon dioxide is released from said adsorbent. - carbon dioxide removal from said process gas takes place alternately in at least a first bed of said solid adsorbent and a second bed of said solid adsorbent, the first bed being regenerated while carbon dioxide contained in the incoming process gas is adsorbed in the second bed and vice-versa, so that the adsorbent material of said first bed and of said second bed is alternately loaded with carbon dioxide, - the incoming process gas is subjected to an indirect heat exchange with the CO2-loaded adsorbent of either said first bed or said second bed, thus cooling said incoming process gas while heating and regenerating said CO2-loaded adsorbent, - carbon dioxide is then removed from the cooled process gas while contacting said gas with adsorbent of the other bed, and - the bed(s) of CO2-loaded adsorbent is kept in a closed environment while heated and regenerated by the indirect heat exchange with said process gas, so that heating of the CO2-loaded adsorbent takes place in a constant volume and pressure inside said closed environment increases while the carbon dioxide is released from said adsorbent.