mhurhangee/ep-ind-claims huggingface dataset:
A power supply apparatus having multiple outputs (Vo1, Vo2), a transformer, a first output circuit configured to generate a first output voltage with respect to power transferred to a secondary side of the transformer, and a first output controller configured to generate a first control signal to control a power supply provided to a primary side of the transformer, the apparatus comprising: a first switch provided at the primary side of the transformer; a second output circuit configured to generate a second output voltage with respect to the power transferred to the secondary side of the transformer; and a second output controller to control an output of the second output voltage, wherein the second output circuit comprises a second switch to perform a switching operation on current flows of the second output circuit, characterized in that the second output controller configured to control the switching operation of the second switch by selectively turning off the second switch when the first control signal generated by the first output controller corresponds to the on state of the first switch and feed the second output voltage back to the to the second output controller to generate a control signal (Ctrl) to control an ON state of the second switch when the first control signal generated by the first output controller corresponds to the off state of the first switch. a first switch provided at the primary side of the transformer; a second output circuit configured to generate a second output voltage with respect to the power transferred to the secondary side of the transformer; and a second output controller to control an output of the second output voltage, wherein the second output circuit comprises a second switch to perform a switching operation on current flows of the second output circuit, characterized in that the second output controller configured to control the switching operation of the second switch by selectively turning off the second switch when the first control signal generated by the first output controller corresponds to the on state of the first switch and feed the second output voltage back to the to the second output controller to generate a control signal (Ctrl) to control an ON state of the second switch when the first control signal generated by the first output controller corresponds to the off state of the first switch.
Thermal conditioning device for a hybrid or electric motor vehicle, comprising: - a first circuit in which a refrigerant is able to circulate; - a second circuit in which a heat-transport fluid is able to circulate; said first circuit comprising at least a compressor, a condenser, an evaporator-condenser configured to have an exterior air flow pass through it and an evaporator intended to thermally condition an air flow intended for the vehicle interior, said second circuit comprising at least a pump and a cooling radiator, in which device: - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser, referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit, directly downstream of the compressor; the device comprising a third circuit in which a heat-transport fluid circulates, said third circuit comprising a pump, an electric component of the vehicle and a heat exchanger thermally coupling the first and third circuits, the second and third circuits being interconnected, characterized in that the device comprises one or more valves configured to allow the heat-transport fluid to circulate independently in the second and third circuits. - a first circuit in which a refrigerant is able to circulate; - a second circuit in which a heat-transport fluid is able to circulate; said first circuit comprising at least a compressor, a condenser, an evaporator-condenser configured to have an exterior air flow pass through it and an evaporator intended to thermally condition an air flow intended for the vehicle interior, said second circuit comprising at least a pump and a cooling radiator, in which device: - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser, referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit, directly downstream of the compressor; - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser, referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit, directly downstream of the compressor; the device comprising a third circuit in which a heat-transport fluid circulates, said third circuit comprising a pump, an electric component of the vehicle and a heat exchanger thermally coupling the first and third circuits, the second and third circuits being interconnected, characterized in that the device comprises one or more valves configured to allow the heat-transport fluid to circulate independently in the second and third circuits.
A method for depicting avionics data anomalies in an aircraft, the method comprising: receiving, via at least one processor, time series data from at least one avionics data source; predicting, via the at least one processor, a future time when a first anomaly threshold will be crossed based on the time series data; and depicting, on a display device associated with the aircraft, the future time when the first anomaly threshold will be crossed, characterized in that depicting the future time includes moving an anomaly flag along a time graph as the future time approaches and moving the anomaly flag into a static gutter portion adjacent the time graph when the at least one avionics data source is determined to be currently anomalous. receiving, via at least one processor, time series data from at least one avionics data source; predicting, via the at least one processor, a future time when a first anomaly threshold will be crossed based on the time series data; and depicting, on a display device associated with the aircraft, the future time when the first anomaly threshold will be crossed, characterized in that depicting the future time includes moving an anomaly flag along a time graph as the future time approaches and moving the anomaly flag into a static gutter portion adjacent the time graph when the at least one avionics data source is determined to be currently anomalous.
A method of processing a tissue, the method comprising: (a) loading a processing vessel with a tissue and a processing solution, thereby providing a combination comprising the tissue and the processing solution disposed in the processing vessel; and (b) applying resonant acoustic energy having a frequency between 15 Hertz and 60 Hertz to the processing vessel, thereby vibrating the processing vessel and the combination disposed therein to form a processed tissue. (a) loading a processing vessel with a tissue and a processing solution, thereby providing a combination comprising the tissue and the processing solution disposed in the processing vessel; and (b) applying resonant acoustic energy having a frequency between 15 Hertz and 60 Hertz to the processing vessel, thereby vibrating the processing vessel and the combination disposed therein to form a processed tissue.
Method for manufacturing a transistor device comprising a germanium channel material on a silicon based substrate, the method comprising: a. providing a shallow trench isolation substrate (2,1,11) comprising a silicon protrusion embedded in STI dielectric structures; b. partially recessing said silicon protrusion in order to provide a trench in between adjacent STI structures, and to provide a V-shaped groove at an upper surface of said recessed protrusion; c. growing a Si 1-x Ge x strain relaxed buffer layer in said trenches; d. growing a Germanium based channel layer in the trenches on said Si 1-x Ge x strain relaxed buffer layer thereby not overgrowing the STI structures which define the trenches; wherein said Si 1-x Ge x strain relaxed buffer layer comprises a germanium content x which is within the range of 20% to 99%, wherein said strain relaxed buffer layer has a thickness smaller than 400 nm, and wherein said trench has a width smaller than 20 nm and wherein the Germanium based channel layer is fully compressively strained. a. providing a shallow trench isolation substrate (2,1,11) comprising a silicon protrusion embedded in STI dielectric structures; b. partially recessing said silicon protrusion in order to provide a trench in between adjacent STI structures, and to provide a V-shaped groove at an upper surface of said recessed protrusion; c. growing a Si 1-x Ge x strain relaxed buffer layer in said trenches; d. growing a Germanium based channel layer in the trenches on said Si 1-x Ge x strain relaxed buffer layer thereby not overgrowing the STI structures which define the trenches;
Offshore foundation structure for structures above the water surface, such as for a wind power station, a fixed navigation mark, a lighthouse, quays, dophins, oil loading structures, oil drilling structures or ice-resistant bridge piers, the offshore foundation structure comprising a shell structure and a braced connection plate connected to the shell structure for attaching the structure above the water surface to the foundation structure, wherein the shell structure of the foundation structure is thin in relation to the diameter of the structure and comprises a ring footing attached to the shell structure at the foundation level to be in use placed against the bottom of the water area, acting as the anchorage in relation to dynamic forces, and longitudinal and/or transverse bracings are connected to the shell structure, characterised in that the shell structure is filled with soil.
An electronic apparatus for wireless power transfer, the apparatus comprising: an electrically conductive body configured to magnetically couple to a first magnetic field; a first tuning element (C 1) electrically connected to the electrically conductive body and configured to tune the electrically conductive body to set a resonant frequency of a circuit comprising the electrically conductive body; an electrically conductive coil wound about an opening defined by the electrically conductive body, the electrically conductive coil configured to magnetically couple to a second magnetic field; a second tuning element (C 2) electrically connected to the electrically conductive coil and configured to tune the electrically conductive coil to set a resonant frequency of a circuit comprising the electrically conductive coil; and a rectifier connected to the electrically conductive coil, the rectifier configured to rectify current induced in the electrically conductive coil to provide power to electronics that comprise the apparatus; wherein the first magnetic field is an externally generated magnetic field generated by a wireless power transmitter and the electrically conductive body is configured to generate the second magnetic field in response to being coupled to the externally generated magnetic field and wherein the first and second tuning elements are controllable to change a resonant frequency of the circuit comprising the electrically conductive body or the circuit comprising the electrically conductive coil, respectively, in order to vary the power provided to the electronics that comprise the apparatus. an electrically conductive body configured to magnetically couple to a first magnetic field; a first tuning element (C 1) electrically connected to the electrically conductive body and configured to tune the electrically conductive body to set a resonant frequency of a circuit comprising the electrically conductive body; an electrically conductive coil wound about an opening defined by the electrically conductive body, the electrically conductive coil configured to magnetically couple to a second magnetic field; a second tuning element (C 2) electrically connected to the electrically conductive coil and configured to tune the electrically conductive coil to set a resonant frequency of a circuit comprising the electrically conductive coil; and a rectifier connected to the electrically conductive coil, the rectifier configured to rectify current induced in the electrically conductive coil to provide power to electronics that comprise the apparatus; wherein the first magnetic field is an externally generated magnetic field generated by a wireless power transmitter and the electrically conductive body is configured to generate the second magnetic field in response to being coupled to the externally generated magnetic field and wherein the first and second tuning elements are controllable to change a resonant frequency of the circuit comprising the electrically conductive body or the circuit comprising the electrically conductive coil, respectively, in order to vary the power provided to the electronics that comprise the apparatus.
An optical system, comprising: a light-transmitting substrate having at least two major surfaces and edges; at least one optical means (16, 116, 118) for coupling light waves into the substrate by total internal reflection; at least two partially reflecting surfaces (22a, 22b, 22c, 22e, 22f) carried by the substrate wherein the partially reflecting surfaces (22a, 22b, 22c, 22e, 22f) are not parallel to the main surfaces of the substrate; at least one light source projecting light waves located within a first optical spectrum; and at least one display source, said at least one display source projecting light waves located within a second optical spectrum, wherein the first optical spectrum is different than the second optical spectrum and wherein the light waves from the light source and light waves from the display source are coupled into the substrate by total internal reflection. a light-transmitting substrate having at least two major surfaces and edges; at least one optical means (16, 116, 118) for coupling light waves into the substrate by total internal reflection; at least two partially reflecting surfaces (22a, 22b, 22c, 22e, 22f) carried by the substrate wherein the partially reflecting surfaces (22a, 22b, 22c, 22e, 22f) are not parallel to the main surfaces of the substrate; at least one light source projecting light waves located within a first optical spectrum; and at least one display source, said at least one display source projecting light waves located within a second optical spectrum, wherein the first optical spectrum is different than the second optical spectrum and wherein the light waves from the light source and light waves from the display source are coupled into the substrate by total internal reflection.
A vial adaptor for connecting a medical injection device to a vial, the adaptor comprising: - a proximal connection portion configured to be removably connectable to a medical injection device; - a spike extending distally from the proximal connection portion and around a central axis; - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis, - a rim extending around the central axis at a distance distally away from the flange and being connected to the flange through a skirt; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor, the adaptor being characterized by further comprising at least one audible barb extending proximally from the rim and being configured to be snap-fitted onto the vial, the at least one audible barb being thinner and longer than the retention barb. the adaptor comprising: - a proximal connection portion configured to be removably connectable to a medical injection device; - a spike extending distally from the proximal connection portion and around a central axis; - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis, - a rim extending around the central axis at a distance distally away from the flange and being connected to the flange through a skirt; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor, - a proximal connection portion configured to be removably connectable to a medical injection device; - a spike extending distally from the proximal connection portion and around a central axis; - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis, - a rim extending around the central axis at a distance distally away from the flange and being connected to the flange through a skirt; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor, the adaptor being characterized by further comprising at least one audible barb extending proximally from the rim and being configured to be snap-fitted onto the vial, the at least one audible barb being thinner and longer than the retention barb.
A document body with a tamper-proof edge-face identification (412, 423) comprising a flat lamination body formed of a plurality of thin layers laminated with their faces on each other, wherein the lamination body has an upper face and an opposite lower face and wherein between the upper face and the lower face at least one edge-face (13, 14, 16, 17) of the lamination body is formed between the upper face and the lower face, the areal extent of which is smaller than the areal extent of the upper face and of the lower face, wherein an identification is formed in the interior of the lamination body so that this can be optically detected at the at least one edge-face (13, 14, 16, 17), the identification being printed on a layer surface of one of the layers as an identification print, the one layer surface being arranged in the lamination body in the interior and the identification print extending on the layer surface as far as the at least one edge-face (13, 14, 16, 17), wherein between the upper face of the lamination body and the identification print and the lower face of the lamination body and the identification print in each case at least one of the layers (20; 30, 40, 50, 60, 70) has sufficient opacity that the identification print cannot be detected in the case of incident light detection in which illumination with visible light and optical detection take place from the same side of the lamination body, characterized in that the identification print is verifiable in transmitted light by selecting the opacities of the layers of the document body in such a way that, in the case of transmitted light detection with light in the visible wavelength range, in which the document body is arranged between the illumination source and the detection device, at least one contrast caused by the identification print can be detected.
A method of establishing a range restriction for calling an elevator car (204-1..204-n) through a mobile device, the method comprising: displaying a map of a desired building including a center point on a manager device; wherein the center point is at least one of a geographical center point of the desired building, a front door of the desired building, and a lobby of the desired building; adjusting the center point using the manager device; adjusting the range restriction using the manager device, wherein the range restriction limits elevator calls to mobile devices located within a selected range of the center point of the desired building; receiving an elevator call from a mobile device, the elevator call including a geographical location of the mobile device; and moving the elevator car (204-1..204-n) in response to the elevator call when the geographical location of the mobile device is within the range restriction limits. displaying a map of a desired building including a center point on a manager device; wherein the center point is at least one of a geographical center point of the desired building, a front door of the desired building, and a lobby of the desired building; adjusting the center point using the manager device; adjusting the range restriction using the manager device, wherein the range restriction limits elevator calls to mobile devices located within a selected range of the center point of the desired building; receiving an elevator call from a mobile device, the elevator call including a geographical location of the mobile device; and moving the elevator car (204-1..204-n) in response to the elevator call when the geographical location of the mobile device is within the range restriction limits.
A control assembly for a walk-behind compaction roller, the control assembly comprising: a first control handle and a second control handle that are each rigidly connected to a control arm configured to extend in a rearward direction from a compaction roller; a control lever assembly connected to the control arm and movable relative thereto to manipulate a travel speed of the compaction roller; and a first grip site and a second grip site defined by the control lever assembly, the first grip site and the second grip site being laterally offset from one another and shaped to slidably cooperate with a respective one of the first control handle and the second control handle so that an operator can simultaneously grip either 1) the first grip site and the first control handle or 2) the second grip site and the second control handle. a first control handle and a second control handle that are each rigidly connected to a control arm configured to extend in a rearward direction from a compaction roller; a control lever assembly connected to the control arm and movable relative thereto to manipulate a travel speed of the compaction roller; and a first grip site and a second grip site defined by the control lever assembly, the first grip site and the second grip site being laterally offset from one another and shaped to slidably cooperate with a respective one of the first control handle and the second control handle so that an operator can simultaneously grip either 1) the first grip site and the first control handle or 2) the second grip site and the second control handle.
A sanitary thin paper-containing box, comprising: a box unit having a top face, a bottom face, and side faces connecting to the top and bottom faces; an annularly-patterned cleaving perforation on the top face; and a resin-contained film sheet covering a section within the perforation from inside of the box unit, the film sheet having a slit, the slit being located at least in the section within the annularly-patterned perforation, and the section surrounded by the annularly-patterned perforation being torn off along the perforation to form a take-out opening and expose the film sheet and the slit made in the film sheet from the take-out opening, thereby allowing sanitary thin paper stored in the box to be taken out, characterized in that a cleaving perforation is disposed on the bottom face in an almost annular or arch pattern, and the bottom face is cleaved along the cleaving perforation and forms a cover member hinged in a line linking a start end and a terminal end of the cleaving perforation, such that a take-out opening is formed on the bottom face which allows a user to put a hand into the box.