mhurhangee/ep-ind-claims huggingface dataset:
A transparent layered element (10 1, 10 2, 10 3, 10 4, 10 5, 10 6) comprising two transparent outer layers (2, 4) having approximately the same refractive index (n2, n4) and each having a smooth outer main surface (2A, 4A), the layered element comprising: - a screen zone with properties of diffuse reflection and specular transmission comprising a textured middle layer interposed between the outer layers (2, 4), which defines textured contact surfaces, parallel to one another, having a mean square slope Rdq strictly greater than 0.2°, the middle layer of the screen zone comprising at least one transparent layer with a refractive index (n3E) different from that of the outer layers or a metallic layer, and - a peripheral zone with properties of specular reflection and specular transmission, characterized in that the layered element comprises a transition zone with properties of diffuse reflection and specular transmission between the screen zone and the peripheral zone, the transition zone comprising a textured middle layer interposed between the outer layers (2, 4), which defines textured contact surfaces, parallel to one another, having a mean square slope Rdq strictly greater than 0.2°, the middle layer of the transition zone comprising at least one transparent layer with a refractive index (n3T) different from that of the outer layers or a metallic layer, and in that the diffuse light reflection (RL diff) at any point of the transition zone is less than or equal to the diffuse light reflection (RL diff) at any point of the screen zone and the variation of the diffuse light reflection (RL diff) in the transition zone from the screen zone to the peripheral zone, in any direction joining the screen zone to the peripheral zone, is decreasing or such that the curve passing through the value of diffuse light reflection at the junction of the transition zone with the screen zone and through the or each local maximum of the variation of the diffuse light reflection (RL diff) in the transition zone is decreasing, the decrease in the variation of the diffuse light reflection (RL diff) in the transition zone, or the curve passing through the or each local maximum of the variation of the diffuse light reflection (RL diff) in the transition zone, being obtained by varying at least one parameter from the mean square slope (Rdq) and the total light reflection (RL) of the middle layer of the transition zone, in any direction joining the screen zone to the peripheral zone. - a screen zone with properties of diffuse reflection and specular transmission comprising a textured middle layer interposed between the outer layers (2, 4), which defines textured contact surfaces, parallel to one another, having a mean square slope Rdq strictly greater than 0.2°, the middle layer of the screen zone comprising at least one transparent layer with a refractive index (n3E) different from that of the outer layers or a metallic layer, and - a peripheral zone with properties of specular reflection and specular transmission,
A method for producing wood chips for the production of chipboards, in particular made from recycling wood, comprising - a material supply unit in at least one first carrying structure (3, 4a) that is adapted to the material supply unit, - a first mechanical sorting unit the material to be comminuted a first time in at least one second carrying structure (3, 6a) that is adapted to the first sorting unit, - a material comminution unit in at least one third carrying structure (3, 8a) that is adapted to the material comminution, - a second mechanical sorting unit the comminuted material a second time in at least one fourth carrying structure (3, 10a) that is adapted to the second sorting unit, - wherein the sorting (6, 10) takes place by means of shakers or a vibrating chute and/or at least one screen, and/or at least one material separator unit separates off foreign matter, in particular metal and/or plastics material, wherein the first, second, third, and fourth carrying structures (3, 4a, 6a, 8a, 10a) are each arranged so as to be semi-mobile on a foundation and/or on a supporting structure and are interconnected either directly or via material-carrying lines (20, 22, 24, 26), wherein the supplied material is conveyed from the material supply unit through a first material-carrying line to the first mechanical sorting unit and is sorted, and is supplied from the first mechanical sorting unit through a second material-carrying line to the material comminution unit and is comminuted therein so as to form wood chips, and is supplied from there through a third material-carrying line to the second mechanical sorting unit, in which the wood chips are sorted by machine, whereupon the wood chips are provided for the production of chipboards. - a material supply unit in at least one first carrying structure (3, 4a) that is adapted to the material supply unit, - a first mechanical sorting unit the material to be comminuted a first time in at least one second carrying structure (3, 6a) that is adapted to the first sorting unit, - a material comminution unit in at least one third carrying structure (3, 8a) that is adapted to the material comminution, - a second mechanical sorting unit the comminuted material a second time in at least one fourth carrying structure (3, 10a) that is adapted to the second sorting unit, - wherein the sorting (6, 10) takes place by means of shakers or a vibrating chute and/or at least one screen, and/or at least one material separator unit separates off foreign matter, in particular metal and/or plastics material,
Button cell comprising a leaktightly sealed case consisting of - a cell cup which has a base, a circumferential sleeve, a transition region joining the base and the sleeve, and a cut edge at the end, - a cell cover which has a base, a circumferential sleeve, a transition region joining the base and the sleeve, and a cut edge at the end and - a seal, wherein the cell cover is pushed with the cut edge foremost into the cell cup, and the seal between the cell cup and the cell cover is arranged in such a way that it isolates them from each other, characterized in that - the sleeve of the cell cover is divided into a single-walled section and an adjoining circumferential double-walled opening edge with a U-shaped cross-section which was formed by bending the cut edge of the cell cover radially outward, - the sleeve of the cell cover has a circumferential notch, directly below the circumferential double-walled opening edge, in which its external diameter has a minimum value, and - the sleeve of the cell cup has a circumferential protuberance, formed by radial drawing-in, which engages in this circumferential notch. - a cell cup which has a base, a circumferential sleeve, a transition region joining the base and the sleeve, and a cut edge at the end, - a cell cover which has a base, a circumferential sleeve, a transition region joining the base and the sleeve, and a cut edge at the end and - a seal, - the sleeve of the cell cover is divided into a single-walled section and an adjoining circumferential double-walled opening edge with a U-shaped cross-section which was formed by bending the cut edge of the cell cover radially outward, - the sleeve of the cell cover has a circumferential notch, directly below the circumferential double-walled opening edge, in which its external diameter has a minimum value, and - the sleeve of the cell cup has a circumferential protuberance, formed by radial drawing-in, which engages in this circumferential notch.
Method of observing a change of mass inside a grinding unit as a part of a grinding process with a process input path feeding the grinding unit with input material to be grinded, a storing unit for storing grinded material from the grinding unit, and a process output path for removing grinded material from the storing unit, characterized in that, the method comprising the following steps: a) determining a mass flow of the process input path (m i) and a mass flow of the process output path (m s); b) determining a change of mass of the grinded material inside the storing unit; and c) deriving the change of mass inside the grinding unit from the determined change of mass inside the storing unit and the determined mass flows (m i, m s), and based on a previously established mass balance for the grinding unit and a previously established mass balance for the storing unit. a) determining a mass flow of the process input path (m i) and a mass flow of the process output path (m s); b) determining a change of mass of the grinded material inside the storing unit; and c) deriving the change of mass inside the grinding unit from the determined change of mass inside the storing unit and the determined mass flows (m i, m s), and based on a previously established mass balance for the grinding unit and a previously established mass balance for the storing unit.
A user device (150, 300) comprising: a display; a capacitive touch button (100, 155, 220, 405) comprising a conductive button separate from the display, and wherein the capacitive touch button includes a push-button functionality; a conductive housing (115, 205), wherein the conductive housing supports the capacitive touch button; a memory, wherein the memory stores software and user preferences indicating a type of quick-look information to be displayed when the capacitive touch button is activated by first user inputs; and a processor, wherein in response to the first user inputs where a user touches the capacitive touch button or comes sufficiently close to touching the capacitive touch button to activate the capacitive touch button, the processor is configured to execute the software to: output, via the display and while the user device is in an idle state, a pre-defined image that includes said quick-look information for a period of time equivalent to a period in which the capacitive touch button remains activated, wherein in response to second user inputs where a user presses the conductive button by using the push-button functionality, the capacitive touch button is a power button configured to turn on and turn off the user device. a display; a capacitive touch button (100, 155, 220, 405) comprising a conductive button separate from the display, and wherein the capacitive touch button includes a push-button functionality; a conductive housing (115, 205), wherein the conductive housing supports the capacitive touch button; a memory, wherein the memory stores software and user preferences indicating a type of quick-look information to be displayed when the capacitive touch button is activated by first user inputs; and a processor, wherein in response to the first user inputs where a user touches the capacitive touch button or comes sufficiently close to touching the capacitive touch button to activate the capacitive touch button, the processor is configured to execute the software to: output, via the display and while the user device is in an idle state, a pre-defined image that includes said quick-look information for a period of time equivalent to a period in which the capacitive touch button remains activated, wherein in response to second user inputs where a user presses the conductive button by using the push-button functionality, the capacitive touch button is a power button configured to turn on and turn off the user device.
A method for operating a power generating asset (100, 114) connected to a power grid, the method comprising: detecting, via a controller (200, 202), a fault condition impacting the power generating asset; determining, via the controller (200, 202), whether the fault condition is occurring in the power generating asset (100, 114) or in the power grid; implementing a first response control scheme defining a first current threshold when the fault condition is occurring in the power generating asset (100, 114), and a second response control scheme defining a second current threshold when the fault condition is occurring in the power grid, wherein the first current threshold is less than the second current threshold; and implementing a control action in response to an approach of a current to the first current threshold when the fault condition is occurring in the power generating asset (100, 114) and to the second current threshold when the fault condition is occurring in the power grid. detecting, via a controller (200, 202), a fault condition impacting the power generating asset; determining, via the controller (200, 202), whether the fault condition is occurring in the power generating asset (100, 114) or in the power grid; implementing a first response control scheme defining a first current threshold when the fault condition is occurring in the power generating asset (100, 114), and a second response control scheme defining a second current threshold when the fault condition is occurring in the power grid, wherein the first current threshold is less than the second current threshold; and implementing a control action in response to an approach of a current to the first current threshold when the fault condition is occurring in the power generating asset (100, 114) and to the second current threshold when the fault condition is occurring in the power grid.
A method, comprising: receiving, by a computing device a connection request to establish a VR session, the connection request being transmitted from an end user VR system, the connection request and a connection response representing a handshake between the end user VR system and the computing device for establishing a service provider VR session; transmitting, by the computing device, a registry query to a virtual container registry to query a registry of virtual containers for one or more VR containers that are accessible to the end-user system, wherein the registry is a universal registry listing any type of VR container along with requirements for accessing the VR container, and the registry identifies one or more VR containers compatible with one or more end-user VR systems; receiving, by the computing device from the registry, a registry response comprising information about establishing a VR session with one or more VR containers; transmitting, by the computing device to the end-user VR system, information associated with the one or more VR containers to establish the VR session with the one or more VR containers; receiving, by the computing device from the end user VR system, a request for access to a VR container of the one or more VR containers in accordance with the session information; establishing a network connection with the end user VR system; and using the network connection to facilitate access by the end user VR system to data for rendering output corresponding to the VR container. receiving, by a computing device a connection request to establish a VR session, the connection request being transmitted from an end user VR system, the connection request and a connection response representing a handshake between the end user VR system and the computing device for establishing a service provider VR session; transmitting, by the computing device, a registry query to a virtual container registry to query a registry of virtual containers for one or more VR containers that are accessible to the end-user system, wherein the registry is a universal registry listing any type of VR container along with requirements for accessing the VR container, and the registry identifies one or more VR containers compatible with one or more end-user VR systems; receiving, by the computing device from the registry, a registry response comprising information about establishing a VR session with one or more VR containers; transmitting, by the computing device to the end-user VR system, information associated with the one or more VR containers to establish the VR session with the one or more VR containers; receiving, by the computing device from the end user VR system, a request for access to a VR container of the one or more VR containers in accordance with the session information; establishing a network connection with the end user VR system; and using the network connection to facilitate access by the end user VR system to data for rendering output corresponding to the VR container.
A combustion engine comprising a crankshaft and at least one cylinder assembly, each cylinder assembly comprising: - a hollow cylinder, - a piston positioned in the cylinder and able to travel in the cylinder in a linear reciprocating motion, - a guide unit positioned in the cylinder between the piston and the crankshaft and able to travel in the cylinder in a reciprocating motion, - a piston rod coupled to the crankshaft, as well as to the guide unit and via a link rod coupled to the piston, wherein the piston rod has - a first hub arranged in its head for coupling with the crankshaft, - a second hub arranged in its foot for coupling with the guide unit, and - a third hub arranged in its foot for coupling with the link rod which is coupled to the piston, characterised in that the cylinder assembly is arranged so that: - the second hub of the piston rod is connected to the guide unit at a position which is offset from the centre line of the cylinder a certain distance, - the crankshaft is positioned offset from the centre line of the cylinder at a distance which corresponds to the distance which the second hub is offset from the centre line of the cylinder, such that when the crankshaft reaches its TDC, the first hub and the second hub form an imaginary line parallel to the centre line of the cylinder - the link rod is connected to the piston and to the third hub substantially in the centre line of the cylinder so that the link rod is substantially aligned with the centre line of the cylinder thus creating a geometry avoiding lateral forces on the piston. - a hollow cylinder, - a piston positioned in the cylinder and able to travel in the cylinder in a linear reciprocating motion, - a guide unit positioned in the cylinder between the piston and the crankshaft and able to travel in the cylinder in a reciprocating motion, - a piston rod coupled to the crankshaft, as well as to the guide unit and via a link rod coupled to the piston, wherein the piston rod has - a first hub arranged in its head for coupling with the crankshaft, - a second hub arranged in its foot for coupling with the guide unit, and - a third hub arranged in its foot for coupling with the link rod which is coupled to the piston, - the second hub of the piston rod is connected to the guide unit at a position which is offset from the centre line of the cylinder a certain distance, - the crankshaft is positioned offset from the centre line of the cylinder at a distance which corresponds to the distance which the second hub is offset from the centre line of the cylinder, such that when the crankshaft reaches its TDC, the first hub and the second hub form an imaginary line parallel to the centre line of the cylinder - the link rod is connected to the piston and to the third hub substantially in the centre line of the cylinder so that the link rod is substantially aligned with the centre line of the cylinder thus creating a geometry avoiding lateral forces on the piston.
A system comprising a robot and a device for controlling the robot, wherein the robotic hand of the robot is connected to a nozzle for high-pressure cleaning by means of water, the device comprising - a retaining part, - a forearm panel, which is supported by the retaining part and is elastically biased into a zero position and can be moved from the zero position in the x-y-plane relative to the retaining part, - at least one sensor for detecting a movement of the forearm panel in the x-y-plane relative to the retaining part, - a control lever, which is supported by the forearm panel and which, starting from a neutral position in which it is elastically biased, executes at least one, preferably several of the following movements relative to the forearm panel: - a tilting movement about the x-direction and/or about the y-direction, - a sliding movement in the z-direction, and - a rotary movement about the z-direction, and - sensors for detecting the movements of the control lever relative to the forearm panel. - a retaining part, - a forearm panel, which is supported by the retaining part and is elastically biased into a zero position and can be moved from the zero position in the x-y-plane relative to the retaining part, - at least one sensor for detecting a movement of the forearm panel in the x-y-plane relative to the retaining part, - a control lever, which is supported by the forearm panel and which, starting from a neutral position in which it is elastically biased, executes at least one, preferably several of the following movements relative to the forearm panel: - a tilting movement about the x-direction and/or about the y-direction, - a sliding movement in the z-direction, and - a rotary movement about the z-direction, and - sensors for detecting the movements of the control lever relative to the forearm panel. - a tilting movement about the x-direction and/or about the y-direction, - a sliding movement in the z-direction, and - a rotary movement about the z-direction, and - sensors for detecting the movements of the control lever relative to the forearm panel.
A system for automatically connecting tubing while maintaining sterility, the system comprising: a frame for mounting adjacent a cassette in a dialysis machine; a shuttle mounted within the frame, the shuttle configured for receiving tubing from at least two containers, the tubing including a cap; a shuttle driving system for translating the shuttle within the frame; at least two rotating fingers configured for receiving and removing the caps, the fingers mounted to the frame operably adjacent the shuttle; a finger rotating system configured for rotating the fingers in a plane parallel to a direction of travel of the shuttle; and a control system for operating the system for automatically connecting tubing, wherein the system for automatically connecting tubing is configured for receiving sterile tubing from at least two containers, the fingers are configured for receiving caps from the tubing, the shuttle is configured for advancing the ends of the tubing, the control system is configured to rotate the fingers to remove the caps, and the cassette comprises at least two spikes for piercing sterile sealing membranes of the tubing and making a sterile connection. a frame for mounting adjacent a cassette in a dialysis machine; a shuttle mounted within the frame, the shuttle configured for receiving tubing from at least two containers, the tubing including a cap; a shuttle driving system for translating the shuttle within the frame; at least two rotating fingers configured for receiving and removing the caps, the fingers mounted to the frame operably adjacent the shuttle; a finger rotating system configured for rotating the fingers in a plane parallel to a direction of travel of the shuttle; and a control system for operating the system for automatically connecting tubing, wherein the system for automatically connecting tubing is configured for receiving sterile tubing from at least two containers, the fingers are configured for receiving caps from the tubing, the shuttle is configured for advancing the ends of the tubing, the control system is configured to rotate the fingers to remove the caps, and the cassette comprises at least two spikes for piercing sterile sealing membranes of the tubing and making a sterile connection.