mhurhangee/ep-ind-claims huggingface dataset:
An electrode active material, comprising: a core capable of occluding and emitting lithium, said core comprising a cathode active material or an anode active material; and a surface treatment layer formed on at least a portion of a surface of the core, wherein the surface treatment layer comprises a lithium-free oxide having a spinel structure, wherein the lithium-free oxide content is larger than 0wt% and less than 10wt% on a basis of a total weight of electrode active material, and wherein the lithium-free oxide is expressed as Chemical formula 1 below <Chemical formula 1> AB 2 O 4, where A is one or more selected from a group consisting of tin (Sn), magnesium (Mg), molybdenum (Mo), copper (Cu), zinc (Zn), titanium (Ti), nickel (Ni), calcium (Ca), iron (Fe), vanadium, lead (Pb), cobalt (Co), germanium (Ge), cadmium (Cd), mercury (Hg), strontium (Sr), manganese (Mn), aluminum (Al), tungsten, and beryllium (Be); B is one or more selected from a group consisting of Mg, Zn, Al, V, Mn, gallium (Ga), chromium (Cr), Fe, rhodium (Rh), Ni, indium (In), Co, and Mn; and A is different from B, and characterized in that a ratio of a peak intensity of a crystal face to a peak intensity of a crystal face, I /I, of the lithium-free oxide having a spinel structure is more than 0.3. a core capable of occluding and emitting lithium, said core comprising a cathode active material or an anode active material; and a surface treatment layer formed on at least a portion of a surface of the core, wherein the surface treatment layer comprises a lithium-free oxide having a spinel structure, wherein the lithium-free oxide content is larger than 0wt% and less than 10wt% on a basis of a total weight of electrode active material, and wherein the lithium-free oxide is expressed as Chemical formula 1 below <Chemical formula 1> AB 2 O 4, where A is one or more selected from a group consisting of tin (Sn), magnesium (Mg), molybdenum (Mo), copper (Cu), zinc (Zn), titanium (Ti), nickel (Ni), calcium (Ca), iron (Fe), vanadium, lead (Pb), cobalt (Co), germanium (Ge), cadmium (Cd), mercury (Hg), strontium (Sr), manganese (Mn), aluminum (Al), tungsten, and beryllium (Be); B is one or more selected from a group consisting of Mg, Zn, Al, V, Mn, gallium (Ga), chromium (Cr), Fe, rhodium (Rh), Ni, indium (In), Co, and Mn; and A is different from B, and characterized in that a ratio of a peak intensity of a crystal face to a peak intensity of a crystal face, I /I, of the lithium-free oxide having a spinel structure is more than 0.3.
A method for setting a sensor of a tire pressure monitoring system in a motor vehicle, wherein the method comprises the steps of: - providing the sensor in which a plurality of encoding procedures is stored in advance; - providing a sensor setter in which encoding procedure processing instruction sent to the sensor is stored, and - sending encoding procedure processing instruction to the sensor by wireless or wired means by the setter once or more than once, wherein the sensor receives the encoding procedure processing instruction, on the basis of which, all other encoding procedures except a required encoding procedure are processed once for all or processed one by one, in this way, the processed encoding procedures are subject to deletion or failure of encoding or failure of invoking for encoding, characterized in that an encoding procedures lock-in instruction is further stored in the sensor setter, the method further comprising the steps of: - before or after or at the same time of sending the encoding procedure processing instruction, the sensor setter sends the encoding procedure lock-in instruction to the sensor by wireless or wired means, and - after receiving the encoding procedure lock-in instruction and before processing other encoding procedures except the required encoding procedure, the sensor locks the required encoding procedure, in this way, it is impossible to delete or modify the required encoding procedure, or that the sensor locks the required encoding procedure by responding to an induction signal such as acceleration and pressure signals, in this way, it is impossible to delete or modify the required encoding procedure. - providing the sensor in which a plurality of encoding procedures is stored in advance; - providing a sensor setter in which encoding procedure processing instruction sent to the sensor is stored, and - sending encoding procedure processing instruction to the sensor by wireless or wired means by the setter once or more than once, - before or after or at the same time of sending the encoding procedure processing instruction, the sensor setter sends the encoding procedure lock-in instruction to the sensor by wireless or wired means, and - after receiving the encoding procedure lock-in instruction and before processing other encoding procedures except the required encoding procedure, the sensor locks the required encoding procedure, in this way, it is impossible to delete or modify the required encoding procedure,
An electrically heated filter screen: for a fuel system, comprising: a first heating body pair extending in a first orientation; a second heating body pair extending in a second orientation, wherein the second heating body pair is coupled to the first heating body pair; wherein each heating body comprises: a heater element with a surface; a metallic layer with an inner surface; and an insulating layer disposed between the heater element surface and the metallic layer inner surface for electrically insulating the heater element from fuel contacting the metallic and insulating layers of the heating body; and wherein an aperture is defined by the first heating body pair and the second heating body pair and extends through the electrically heated filter screen from the metallic layer to an exposed portion of the insulating layer. a first heating body pair extending in a first orientation; a second heating body pair extending in a second orientation, wherein the second heating body pair is coupled to the first heating body pair; wherein each heating body comprises: a heater element with a surface; a metallic layer with an inner surface; and an insulating layer disposed between the heater element surface and the metallic layer inner surface for electrically insulating the heater element from fuel contacting the metallic and insulating layers of the heating body; and wherein an aperture is defined by the first heating body pair and the second heating body pair and extends through the electrically heated filter screen from the metallic layer to an exposed portion of the insulating layer. a heater element with a surface; a metallic layer with an inner surface; and an insulating layer disposed between the heater element surface and the metallic layer inner surface for electrically insulating the heater element from fuel contacting the metallic and insulating layers of the heating body; and wherein an aperture is defined by the first heating body pair and the second heating body pair and extends through the electrically heated filter screen from the metallic layer to an exposed portion of the insulating layer.
A surveillance arrangement with a sensor assigned to an installation, wherein the sensor has at leasts a sensor element and an evaluation unit, wherein the sensor element is designed to detect objects within a surveillance area assigned to the installation and the evaluation unit is designed to detect objects within a surveillance area assigned to the installation, to generate object detection data as a function of sensor signals of the sensor element, characterised in that a memory unit is provided in which control data (a) generated as a function of the object detection data restored in a tamper-proof manner by means of a checksum (b), it being possible to check the function of the system and of the sensor by means of the control data (a).
A method for inspecting a solar panel (3a-n) of a solar power station, the method being performed in a controller for an unmanned aerial vehicle, UAV, and comprising the steps of: receiving an inspection request for a subset of the solar panels; navigating, in a first stage, using radio signals (20a, 20b), the UAV to an initial location in a vicinity of a particular solar panel of the subset of solar panels; positioning, in a second stage, the UAV using at least one near field sensor (11, 12, 13) of the UAV, such that an infrared camera of the UAV is as close as possible, within a margin of error, to a direction being perpendicular to a main surface of the particular solar panel while preventing the UAV from shadowing the particular solar panel; and capturing, using the infrared camera, an image of the particular solar panel. receiving an inspection request for a subset of the solar panels; navigating, in a first stage, using radio signals (20a, 20b), the UAV to an initial location in a vicinity of a particular solar panel of the subset of solar panels; positioning, in a second stage, the UAV using at least one near field sensor (11, 12, 13) of the UAV, such that an infrared camera of the UAV is as close as possible, within a margin of error, to a direction being perpendicular to a main surface of the particular solar panel while preventing the UAV from shadowing the particular solar panel; and capturing, using the infrared camera, an image of the particular solar panel.
A system for processing measurement data and/or measurement parameter data which are read from a calibratable tool, characterized by a data conversion device implemented as a protocol conversion device which, on the one hand, can be connected to a tool via an interface in order to read measurement data from the tool, and which, on the other hand, can be connected to a data processing device via the same interface or an additional interface, wherein the data conversion device performs a protocol conversion so that measurement data from different tools (10b, 10c, 10d) can be read with the aid of different interfaces and protocols by the data conversion device.
A reinforced-concrete/steel structure made of a concrete component including a reinforcement with at least one steel-strut mesh, and of a steel component undetachably connected therewith, wherein • the connection between the concrete component and the steel component is formed by at least one anchor ledge having a joint face for being joined to the steel component, • the anchor ledge is cast into the concrete component in such a way that the joint face of the anchor ledge exits from the concrete component, • the anchor ledge includes a number of recesses, which extend at least partially into the concrete component and through each of which passes at least one steel strut of the steel-strut mesh, characterized in that each recess is an indentation which is open towards the steel component and which separates the joint face of the anchor ledge into partial sections spatially separated from each other. • the connection between the concrete component and the steel component is formed by at least one anchor ledge having a joint face for being joined to the steel component, • the anchor ledge is cast into the concrete component in such a way that the joint face of the anchor ledge exits from the concrete component, • the anchor ledge includes a number of recesses, which extend at least partially into the concrete component and through each of which passes at least one steel strut of the steel-strut mesh, characterized in that
An illumination device (201a, 201b, 201c, 201d, 201e, 201f, 301, 401, 501, 601, 701, 801, 901) comprising: ∘ a first light source array (203, 303, 903) comprising at least a first light source; said first light source generates a first light beam having a first spectral distribution; said first light beam propagates primarily in a first direction along an optical axis (207, 307); ∘ a second light source array (209, 309, 913) comprising at least a second light source, said second light source generates a second light beam having a second spectral distribution; ∘ a first dichroic reflector (211, 311, 511, 611, 711, 811a) positioned at least partially in said first light beam and said second light beam; said first dichroic reflector transmits at least a part of said first light beam and reflects at least a part of said second light beam; wherein ∘ said second light beam propagates primarily in a second direction along said optical axis (207, 307) towards at least a part of said first light source array; ∘ at least a part of said second light beam propagates primarily in said first direction after being reflected by said first dichroic reflector (211, 311, 511, 611,711, 811a); and ∘ characterized in that said first dichroic reflector (211, 311, 511, 611,711, 811a) is substantially perpendicular to the optical axis (207, 307). ∘ a first light source array (203, 303, 903) comprising at least a first light source; said first light source generates a first light beam having a first spectral distribution; said first light beam propagates primarily in a first direction along an optical axis (207, 307); ∘ a second light source array (209, 309, 913) comprising at least a second light source, said second light source generates a second light beam having a second spectral distribution; ∘ a first dichroic reflector (211, 311, 511, 611, 711, 811a) positioned at least partially in said first light beam and said second light beam; said first dichroic reflector transmits at least a part of said first light beam and reflects at least a part of said second light beam; wherein ∘ said second light beam propagates primarily in a second direction along said optical axis (207, 307) towards at least a part of said first light source array; ∘ at least a part of said second light beam propagates primarily in said first direction after being reflected by said first dichroic reflector (211, 311, 511, 611,711, 811a); and ∘ characterized in that said first dichroic reflector (211, 311, 511, 611,711, 811a) is substantially perpendicular to the optical axis (207, 307). ∘ said second light beam propagates primarily in a second direction along said optical axis (207, 307) towards at least a part of said first light source array; ∘ at least a part of said second light beam propagates primarily in said first direction after being reflected by said first dichroic reflector (211, 311, 511, 611,711, 811a); and ∘ characterized in that said first dichroic reflector (211, 311, 511, 611,711, 811a) is substantially perpendicular to the optical axis (207, 307).
A method of performing near field communication payment using a mobile terminal equipped with a near field communication chip, characterized by: checking, by a controller within the near field communication chip, a power state of the mobile terminal when credit card payment is requested, displaying, on a display, a first mobile payment application that is executed using a first operating system if the mobile terminal is in a power on state, wherein the first operating system indicating a general operating system; displaying, on the display, a second mobile payment application that is executed using a second operating system if the mobile terminal is in a power off state, wherein the second operating system indicates a light operating system and the power off state indicates a low battery state where only specific functions of the mobile terminal can be performed; and performing the near field communication payment with a credit card selected on the first mobile payment application or the second mobile payment application, wherein the second operating system is smaller in power consumption and does not have a booting process, or has a shorter booting process that is faster in a booting speed, than the first operating system. checking, by a controller within the near field communication chip, a power state of the mobile terminal when credit card payment is requested, displaying, on a display, a first mobile payment application that is executed using a first operating system if the mobile terminal is in a power on state, wherein the first operating system indicating a general operating system; displaying, on the display, a second mobile payment application that is executed using a second operating system if the mobile terminal is in a power off state, wherein the second operating system indicates a light operating system and the power off state indicates a low battery state where only specific functions of the mobile terminal can be performed; and performing the near field communication payment with a credit card selected on the first mobile payment application or the second mobile payment application, wherein the second operating system is smaller in power consumption and does not have a booting process, or has a shorter booting process that is faster in a booting speed, than the first operating system.
System for automatically packaging items varying in size and number for shipment, comprising - a unit for acquiring size information of one or more item(s) to be packaged, - an inner packaging material feeding unit (20,22,24) for feeding an inner packaging material, - an outer packaging material feeding unit for feeding an outer packaging material, a first wrapping station (12,14,16) for wrapping said inner packaging material around one or more item(s) to be packaged to create an inner packing surrounding the item(s) in a first direction, and a second wrapping station for wrapping said outer packaging material around said inner packing to create an outer packing surrounding the inner packing in a second direction, said second direction being substantially perpendicular to said first direction, wherein the first and the second wrapping stations are adapted to form said inner packing and said outer packing such that the inner and the outer packing form a combined package enclosing the packaged item(s) from all sides. - a unit for acquiring size information of one or more item(s) to be packaged, - an inner packaging material feeding unit (20,22,24) for feeding an inner packaging material, - an outer packaging material feeding unit for feeding an outer packaging material,
A communication system comprising: a first coupler that extends to form a coupling path and is configured to transmit a signal from a first end of the coupling path to the other end of the coupling path; a second coupler that is shorter in length than the first coupler; communication control means for controlling wireless communication using electromagnetic field coupling between the first coupler and the second coupler; and movement control means for moving at least one of the first coupler and the second coupler so as to change a position along the coupling path of the second coupler relative to the first coupler; characterized in that a width of the other end of the coupling path is larger than a width of the first end portion of the coupling path, such that a degree of coupling between the first coupler and the second coupler is higher in a case in which the second coupler is positioned at a first distance from the first end along the coupling path than the degree of coupling in a case in which the second coupler is positioned at a second distance from the first end along the coupling path, the second distance being shorter than the first distance. a first coupler that extends to form a coupling path and is configured to transmit a signal from a first end of the coupling path to the other end of the coupling path; a second coupler that is shorter in length than the first coupler; communication control means for controlling wireless communication using electromagnetic field coupling between the first coupler and the second coupler; and movement control means for moving at least one of the first coupler and the second coupler so as to change a position along the coupling path of the second coupler relative to the first coupler; characterized in that a width of the other end of the coupling path is larger than a width of the first end portion of the coupling path, such that a degree of coupling between the first coupler and the second coupler is higher in a case in which the second coupler is positioned at a first distance from the first end along the coupling path than the degree of coupling in a case in which the second coupler is positioned at a second distance from the first end along the coupling path, the second distance being shorter than the first distance.
An electric heating element assembly, comprising: a sheath; a resistive wire; and a dielectric core positioned within the sheath, wherein the dielectric core comprises: an outer body comprising a first end; and an inner body positioned within the outer body, wherein the inner body defines a length, and wherein the inner body comprises: an interior passageway extending the length of the inner body, wherein at least a portion of the resistive wire is positioned in the interior passageway; and a second end, wherein the second end is longitudinally offset from the first end of the outer body; the assembly being characterised in that: said outer body is tubular; and a groove-and-notch interface is provided between the inner body and the outer tubular body that prevents axial rotation of the inner body relative to the outer tubular body. a sheath; a resistive wire; and a dielectric core positioned within the sheath, wherein the dielectric core comprises: an outer body comprising a first end; and an inner body positioned within the outer body, wherein the inner body defines a length, and wherein the inner body comprises: an interior passageway extending the length of the inner body, wherein at least a portion of the resistive wire is positioned in the interior passageway; and a second end, wherein the second end is longitudinally offset from the first end of the outer body; the assembly being characterised in that: said outer body is tubular; and a groove-and-notch interface is provided between the inner body and the outer tubular body that prevents axial rotation of the inner body relative to the outer tubular body. an outer body comprising a first end; and an inner body positioned within the outer body, wherein the inner body defines a length, and wherein the inner body comprises: an interior passageway extending the length of the inner body, wherein at least a portion of the resistive wire is positioned in the interior passageway; and a second end, wherein the second end is longitudinally offset from the first end of the outer body; the assembly being characterised in that: said outer body is tubular; and a groove-and-notch interface is provided between the inner body and the outer tubular body that prevents axial rotation of the inner body relative to the outer tubular body. an interior passageway extending the length of the inner body, wherein at least a portion of the resistive wire is positioned in the interior passageway; and a second end, wherein the second end is longitudinally offset from the first end of the outer body; the assembly being characterised in that: said outer body is tubular; and a groove-and-notch interface is provided between the inner body and the outer tubular body that prevents axial rotation of the inner body relative to the outer tubular body. said outer body is tubular; and a groove-and-notch interface is provided between the inner body and the outer tubular body that prevents axial rotation of the inner body relative to the outer tubular body.