mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a plurality of cameras including a first camera (180; 310) and a second camera (180; 320); a memory (130; 250); and a processor (120; 260) configured to: perform high-speed shooting for image capture by changing a shooting speed of the first camera to a second frame rate greater than a first frame rate, in accordance with a motion of at least one object in images captured using the second camera; by setting a first area of interest (801; 901) for images to be captured using the first camera and a second area of interest (803; 903) for images to be captured using the second camera; and characterized by tracing a motion path of the at least one object; and changing the shooting speed of the first camera at a point in time at which the at least one object is located within a distance less than a reference value from the first area of interest in accordance with the motion path. a plurality of cameras including a first camera (180; 310) and a second camera (180; 320); a memory (130; 250); and a processor (120; 260) configured to: perform high-speed shooting for image capture by changing a shooting speed of the first camera to a second frame rate greater than a first frame rate, in accordance with a motion of at least one object in images captured using the second camera; by setting a first area of interest (801; 901) for images to be captured using the first camera and a second area of interest (803; 903) for images to be captured using the second camera; and characterized by tracing a motion path of the at least one object; and changing the shooting speed of the first camera at a point in time at which the at least one object is located within a distance less than a reference value from the first area of interest in accordance with the motion path. perform high-speed shooting for image capture by changing a shooting speed of the first camera to a second frame rate greater than a first frame rate, in accordance with a motion of at least one object in images captured using the second camera; by setting a first area of interest (801; 901) for images to be captured using the first camera and a second area of interest (803; 903) for images to be captured using the second camera; and characterized by tracing a motion path of the at least one object; and changing the shooting speed of the first camera at a point in time at which the at least one object is located within a distance less than a reference value from the first area of interest in accordance with the motion path.
Method for the liquid feeding of animals using a device according to one of claims 11 to 18, comprising the steps: provision of at least one solid or paste-like feed component; bringing together of a liquid and the at least one solid or paste-like feed component; mixing of the at least one solid or paste-like feed component with the liquid to a liquid feed and conveying of the liquid feed towards at least one delivery point for feeding of the animals, characterised in that the method comprises a conveying mode in which mixing of the at least one solid or paste-like feed component with the liquid and conveying of the liquid feed towards the delivery point for feeding of the animals takes place in one process step, characterised in that the filling level of a feed trough connected to the delivery point is monitored by means of a sensor and that the sensor delivers a feed requirement signal if a predefined low filling level in the feed trough has been identified, and that the method comprises a pump transfer mode in which the liquid or liquid feed circulates in a loop (28, 34, 42) and the feed requirement signal is monitored, and switching to conveying mode takes place if a feed requirement signal from the at least one delivery point is delivered.
Food preparation device comprising: - a housing with a drive device, - at least two removable and interchangeable working tools, each working tool being arranged to be driven in rotation by the drive device around a rotation axis when placed in a work space, - a feed part comprising a first axial guide conduit laid out to guide food towards the work space along a first direction along the rotation axis, the first axial guide conduit extending around the rotation axis, - the working tools comprising a first working tool arranged to work the food introduced into the first guide conduit, the first working tool comprising at least one cutting blade arranged to cut food spirally when it is introduced through the first guide conduit and a second working tool comprising at least one cutting portion, characterised in that the feed part comprises a second non-axial guide conduit arranged to guide food towards the work space, the second non-axial guide conduit extending away from the rotation axis, and in that the second working tool is arranged to work the food introduced through the second guide conduit into the work space, said at least one cutting portion being arranged on a generating line of the second working tool located facing the second guide conduit. - a housing with a drive device, - at least two removable and interchangeable working tools, each working tool being arranged to be driven in rotation by the drive device around a rotation axis when placed in a work space, - a feed part comprising a first axial guide conduit laid out to guide food towards the work space along a first direction along the rotation axis, the first axial guide conduit extending around the rotation axis, - the working tools comprising a first working tool arranged to work the food introduced into the first guide conduit, the first working tool comprising at least one cutting blade arranged to cut food spirally when it is introduced through the first guide conduit and a second working tool comprising at least one cutting portion,
An electrolyte solution for a lithium secondary battery, the electrolyte solution comprising: a lithium salt; an additive including a compound represented by Formula 1; and an organic solvent: wherein, in Formula 1, R is an unsubstituted alkylene group having 1 to 5 carbon atoms, and A is an unsubstituted nitrogen atom-containing heteroaryl group having 3 to 7 carbon atoms. a lithium salt; an additive including a compound represented by Formula 1; and an organic solvent: wherein, in Formula 1, R is an unsubstituted alkylene group having 1 to 5 carbon atoms, and A is an unsubstituted nitrogen atom-containing heteroaryl group having 3 to 7 carbon atoms.
A communication system comprising: a first cell; a plurality of second cells (C11 to C14, C21 to C24) having a range area smaller than a range area of the first cell, the second cells consisting of at least one cell in which short-procedure communication is capable of being performed and at least one cell in which the short-procedure communication is not capable of being performed, the short-procedure communication being communication of transmitting or receiving user data without newly setting up a communication channel for exclusive use of the user data at the time the user data is generated; a first base station adapted to manage the first cell; and a terminal device registered in the first cell and capable of performing short procedure communication, wherein the first base station is adapted to transmit notification information to the terminal device, the notification information indicating the at least one cell in which the short-procedure communication is capable of being performed and the at least one cell in which the short-procedure communication is not capable of being performed out of the second cells, and the terminal device is adapted to perform a cell search targeting the at least one cell in which the short-procedure communication is capable of being performed out of the second cells (C11 to C14, C21 to C24) in accordance with the notification information. a first cell; a plurality of second cells (C11 to C14, C21 to C24) having a range area smaller than a range area of the first cell, the second cells consisting of at least one cell in which short-procedure communication is capable of being performed and at least one cell in which the short-procedure communication is not capable of being performed, the short-procedure communication being communication of transmitting or receiving user data without newly setting up a communication channel for exclusive use of the user data at the time the user data is generated; a first base station adapted to manage the first cell; and a terminal device registered in the first cell and capable of performing short procedure communication, wherein the first base station is adapted to transmit notification information to the terminal device, the notification information indicating the at least one cell in which the short-procedure communication is capable of being performed and the at least one cell in which the short-procedure communication is not capable of being performed out of the second cells, and the terminal device is adapted to perform a cell search targeting the at least one cell in which the short-procedure communication is capable of being performed out of the second cells (C11 to C14, C21 to C24) in accordance with the notification information.
A system for simulating a pyrotechnic shock having a desired shock response spectrum, comprising: an electrical power amplifier configured to amplify a transient signal waveform representing the desired SRS; and a shaker configured to generate a shock pulse in response to the amplified signal waveform; characterized by a resonance beam mounted to the shaker and being configured to magnify the shock pulse. an electrical power amplifier configured to amplify a transient signal waveform representing the desired SRS; and a shaker configured to generate a shock pulse in response to the amplified signal waveform; characterized by a resonance beam mounted to the shaker and being configured to magnify the shock pulse.
A system for performing an input on a robotic manipulator, having: - a robotic manipulator having a plurality of limbs connected to one another by articulations and having actuators, - a computing unit connected to the robotic manipulator, - a sensor unit connected to the computing unit, wherein the sensor unit is designed to record an input variable, applied by the user by manually guiding the robotic manipulator, on the robotic manipulator, wherein the input variable is a kinematic variable or a force and/or a moment, and wherein the sensor unit is designed to transmit the input variable to the computing unit, wherein the computing unit is designed to transform the input variable by way of predefined input variable mapping, characterized in that the input variable mapping defines a mathematical mapping of the input variable onto a coordinate of a graphical user interface, wherein the system comprises a display unit, wherein the display unit is designed for displaying the graphical user interface and objects on the graphical user interface and a mouse pointer with the current coordinate as a mouse pointer coordinate. - a robotic manipulator having a plurality of limbs connected to one another by articulations and having actuators, - a computing unit connected to the robotic manipulator, - a sensor unit connected to the computing unit, wherein the sensor unit is designed to record an input variable, applied by the user by manually guiding the robotic manipulator, on the robotic manipulator, wherein the input variable is a kinematic variable or a force and/or a moment, and wherein the sensor unit is designed to transmit the input variable to the computing unit, wherein the computing unit is designed to transform the input variable by way of predefined input variable mapping, characterized in that the input variable mapping defines a mathematical mapping of the input variable onto a coordinate of a graphical user interface, wherein the system comprises a display unit, wherein the display unit is designed for displaying the graphical user interface and objects on the graphical user interface and a mouse pointer with the current coordinate as a mouse pointer coordinate.
A vehicle control device comprising: a mechanical automatic transmission; an idle-stop device for stopping an engine when a vehicle is stopped; a slope detection device for detecting a slope of a road; and a control unit characterized in that the control unit has a function of disengaging a clutch and selecting a gear appropriate for the detected slope if the slope detected by the slope detection device is at or above a threshold value and an operation of the idle-stop device has been requested. a mechanical automatic transmission; an idle-stop device for stopping an engine when a vehicle is stopped; a slope detection device for detecting a slope of a road; and a control unit characterized in that the control unit has a function of disengaging a clutch and selecting a gear appropriate for the detected slope if the slope detected by the slope detection device is at or above a threshold value and an operation of the idle-stop device has been requested.
A measuring instrument (M;M';M";M′′′) for controlling the density of particles (16,6,17,18,19) in a particle stream, especially small particles, which measuring instrument (M;M';M";M′′′) comprises - a first dosing chute having a first receiving end and a first delivering end, which first dosing chute is attached to a first vibration generator, - a second dosing chute having a second receiving end facing the first delivering end and a second delivering end, which second dosing chute is attached to a second vibration generator, - the first dosing chute is placed higher up than the second dosing chute whereby the particles on the first dosing chute can be delivered in free fall from the first delivering end of the first dosing chute to the second dosing chute, - a first light source and a first camera, - a computer unit is connected to the first vibration generator, the second vibration generator, and the first camera to control a dosing rate of the first dosing chute to the second dosing chute by means of signals from the first camera, wherein - said signals are analyzed by the computer unit to vary the vibration intensity of the first vibration generator and second vibration generator, whereby the particle stream that falls over a first edge of the first delivering end of the first dosing chute is controlled so that the particles in the second dosing chute are separated, characterised in that - the first light source and the first camera are placed above the first dosing chute and the second dosing chute, whereby the first camera covers an angle that corresponds to a field of view spanning the first receiving end to the second delivering end. - a first dosing chute having a first receiving end and a first delivering end, which first dosing chute is attached to a first vibration generator, - a second dosing chute having a second receiving end facing the first delivering end and a second delivering end, which second dosing chute is attached to a second vibration generator, - the first dosing chute is placed higher up than the second dosing chute whereby the particles on the first dosing chute can be delivered in free fall from the first delivering end of the first dosing chute to the second dosing chute, - a first light source and a first camera, - a computer unit is connected to the first vibration generator, the second vibration generator, and the first camera to control a dosing rate of the first dosing chute to the second dosing chute by means of signals from the first camera, wherein - said signals are analyzed by the computer unit to vary the vibration intensity of the first vibration generator and second vibration generator, whereby the particle stream that falls over a first edge of the first delivering end of the first dosing chute is controlled so that the particles in the second dosing chute are separated, - the first light source and the first camera are placed above the first dosing chute and the second dosing chute, whereby the first camera covers an angle that corresponds to a field of view spanning the first receiving end to the second delivering end.
A method for making a fluid sample ready for imaging in a microscopy apparatus comprising a microscopy sample chamber, wherein the microscopy sample chamber is configured to contain the fluid sample and is defined between a flat bottom surface of a chamber top and a sensor surface, wherein the sensor surface is a surface of a light sensor that includes a two-dimensional arrangement of light sensitive elements, and a mechanism (1050, 1052) to controllably deliver the fluid sample to a location of the microscopy sample chamber to enable the fluid sample to be drawn across the microscopy sample chamber by capillary action, the method comprising before the fluid sample is dispensed, moving one of the surfaces (103, 400) of the microscopy sample chamber to a distance from the other surface (103, 400) of the microscopy sample chamber that will enable capillary flow of a fluid containing a sample within the chamber; filling the microscopy sample chamber with the fluid sample via capillary flow; and after the capillary flow, moving the one of the surfaces (103, 400) closer to the other surface (103, 400) to a distance that forces the fluid sample against the other surface for high resolution digital microscopy. a microscopy sample chamber, wherein the microscopy sample chamber is configured to contain the fluid sample and is defined between a flat bottom surface of a chamber top and a sensor surface, wherein the sensor surface is a surface of a light sensor that includes a two-dimensional arrangement of light sensitive elements, and a mechanism (1050, 1052) to controllably deliver the fluid sample to a location of the microscopy sample chamber to enable the fluid sample to be drawn across the microscopy sample chamber by capillary action, the method comprising before the fluid sample is dispensed, moving one of the surfaces (103, 400) of the microscopy sample chamber to a distance from the other surface (103, 400) of the microscopy sample chamber that will enable capillary flow of a fluid containing a sample within the chamber; filling the microscopy sample chamber with the fluid sample via capillary flow; and after the capillary flow, moving the one of the surfaces (103, 400) closer to the other surface (103, 400) to a distance that forces the fluid sample against the other surface for high resolution digital microscopy. before the fluid sample is dispensed, moving one of the surfaces (103, 400) of the microscopy sample chamber to a distance from the other surface (103, 400) of the microscopy sample chamber that will enable capillary flow of a fluid containing a sample within the chamber; filling the microscopy sample chamber with the fluid sample via capillary flow; and after the capillary flow, moving the one of the surfaces (103, 400) closer to the other surface (103, 400) to a distance that forces the fluid sample against the other surface for high resolution digital microscopy.
A method for producing trans-1-chloro-3,3,3-trifluoropropene, characterized in that the method includes: reacting a halogenated hydrocarbon compound having 3 carbon atoms in a gas phase with hydrogen fluoride at 150°C or higher and 600°C or lower in the presence of chlorine, and wherein the halogenated hydrocarbon compound having 3 carbon atoms is at least one selected from the group consisting of 1,1,3,3-tetrachloro-1-fluoropropane, 1,3,3-trichloro-1,1-difluoropropane, cis-1-chloro-3,3,3-trifluoropropene (1233zd), 3,3-dichloro-1,1,1-trifluoropropane, and 3-chloro-1,1,1,3-tetrafluoropropane. reacting a halogenated hydrocarbon compound having 3 carbon atoms in a gas phase with hydrogen fluoride at 150°C or higher and 600°C or lower in the presence of chlorine, and wherein the halogenated hydrocarbon compound having 3 carbon atoms is at least one selected from the group consisting of 1,1,3,3-tetrachloro-1-fluoropropane, 1,3,3-trichloro-1,1-difluoropropane, cis-1-chloro-3,3,3-trifluoropropene (1233zd), 3,3-dichloro-1,1,1-trifluoropropane, and 3-chloro-1,1,1,3-tetrafluoropropane.
Combination of adsorbent materials for filter of combined smoke and industrial filtering escape devices, comprising a layer of non-impregnated activated carbon and a layer of an oxide mixture containing more than 40 wt.% manganese dioxide (MnO 2) and more than 20 wt.% copper oxide (CuO), based on the mixture of oxides used, characterized in that, the active carbon layer is arranged in flow direction in front of the layer of the oxide mixture wherein the activated carbon has a water content of <3 wt.%, wherein the amount of non-impregnated activated carbon is between 60 and 90 mL and the amount of the oxide mixture is between 150 to 190 mL.
Micro Organic Opto-Electronic device emitting a light impulse having a time response below 10 ns, in response to an electrical impulse having a pulse duration time below 100 ns, comprising a dielectric substrate (61, 131) which supports: - a first planar electrode (62, 71, 171) with a transversal dimension T; - an organic layer stack (67, 72, 135) partially covering said first planar electrode (A, 62); - a second planar electrode (63, 73, 173) with at least a part covering said organic layer stack and said first planar electrode (62, 71, 171), defining an active area (45, 54, 64, 74) of the Organic Opto-Electronic device; - some electrical wires for the voltage supply being connected to the first planar electrode (62, 71, 171) and to the second planar electrode (63, 73, 173); characterized in that the dielectric substrate (61, 131) also supports at least one ground plane (121a, 121b); the first planar electrode (62, 71, 171), the second planar electrode (63, 73, 173) and the ground plane (121a, 121b) are separated by gaps (132, G, h) without conductive material, the gaps (132, G, h) having a size (G, h) so as to adapt the speed of propagation of the electrical pulse in the device for limiting the reflections due to the passage of the electrical impulse between the electrical wires and the planar electrodes (62, 71, 173), the gaps (132, G, h) having a size (G, h) so that an effective dielectric permittivity of the Organic Opto-Electronic device is equal to the dielectric permittivity of the electrical wires delivering the electrical impulse. - a first planar electrode (62, 71, 171) with a transversal dimension T; - an organic layer stack (67, 72, 135) partially covering said first planar electrode (A, 62); - a second planar electrode (63, 73, 173) with at least a part covering said organic layer stack and said first planar electrode (62, 71, 171), defining an active area (45, 54, 64, 74) of the Organic Opto-Electronic device; - some electrical wires for the voltage supply being connected to the first planar electrode (62, 71, 171) and to the second planar electrode (63, 73, 173); the dielectric substrate (61, 131) also supports at least one ground plane (121a, 121b); the first planar electrode (62, 71, 171), the second planar electrode (63, 73, 173) and the ground plane (121a, 121b) are separated by gaps (132, G, h) without conductive material, the gaps (132, G, h) having a size (G, h) so as to adapt the speed of propagation of the electrical pulse in the device for limiting the reflections due to the passage of the electrical impulse between the electrical wires and the planar electrodes (62, 71, 173), the gaps (132, G, h) having a size (G, h) so that an effective dielectric permittivity of the Organic Opto-Electronic device is equal to the dielectric permittivity of the electrical wires delivering the electrical impulse.
A transgenic plant comprising a heterologous transgene expression cassette, the expression cassette comprising a promoter operably linked to a polynucleotide encoding a polypeptide comprising a heterologous amino acid sequence of at least 5 amino acids linked to an amino terminus of a protein comprising a CENH3 histone-fold domain, wherein the heterologous amino acid sequence is heterologous to the CENH3 histone-fold domain, and wherein all alleles of the endogenous CENH3 genomic coding sequence of the plant are inactivated or knocked out.