mhurhangee/ep-ind-claims huggingface dataset:
An operating device comprising: left and right hold sections (310L, 310R) to be held by a user, each of the left and right hold sections (310L, 310R) being provided with an operating member at an upper surface thereof; a central section which is a section between the left and right hold sections (310L, 310R), wherein the left and right hold sections (310L, 310R) extend along a forward direction and a backward direction from the central section; a light source; and a light emitting panel comprising a light emitting surface, light from the light source passing through the light emitting panel to be emitted from the Z whole part of the light emitting surface and to be captured by an information processing apparatus through a camera, the light emitting surface being provided at a front surface of the central section and shaped to be elongated in a leftward-rightward direction (X1, X2) which is orthogonal to the forward-backward direction (Y1, Y2), wherein the central section includes a portion which is located over the light emitting surface and protrudes to a more forward side along the forward direction than the light emitting surface, the light emitting surface disposed as to be hidden behind said protruding portion when viewed from above. left and right hold sections (310L, 310R) to be held by a user, each of the left and right hold sections (310L, 310R) being provided with an operating member at an upper surface thereof; a central section which is a section between the left and right hold sections (310L, 310R), wherein the left and right hold sections (310L, 310R) extend along a forward direction and a backward direction from the central section; a light source; and a light emitting panel comprising a light emitting surface, light from the light source passing through the light emitting panel to be emitted from the Z whole part of the light emitting surface and to be captured by an information processing apparatus through a camera, the light emitting surface being provided at a front surface of the central section and shaped to be elongated in a leftward-rightward direction (X1, X2) which is orthogonal to the forward-backward direction (Y1, Y2), wherein the central section includes a portion which is located over the light emitting surface and protrudes to a more forward side along the forward direction than the light emitting surface, the light emitting surface disposed as to be hidden behind said protruding portion when viewed from above.
Electrical connection arrangement, having at least two connection housings arranged next to each other and having at least one strip-like connecting profile for non-detachably connecting the connection housings arranged next to each other, wherein the connecting profile spans the connection housings arranged next to each other and the connecting profile is non-detachably fastened to the connection housings arranged next to each other by means of a laser welding process, wherein the connecting profile is formed from a laser-transparent material and wherein the connection housings have a defined welding area for receiving the connecting profile, characterized in that the welding area has at least one melt rib and melt recesses adjacent to the melt rib.
A solar cell, comprising: an N-type silicon substrate having a first surface and a second surface, a tunnel passivation structure and a first passivation and anti-reflection film formed on the first surface, a boron-doped emitter structure layer formed on the second surface, wherein the emitter structure layer includes a first emitter layer and a second emitter region, wherein the junction depth of the first emitter layer is smaller than that of the second emitter region, the highest boron doping concentration of the first emitter layer is greater than that of the second emitter region, and the total boron doping amount of the first emitter layer is less than that of the second emitter region, a second passivation and anti-reflection film formed on the emitter structure layer, a first electrode configured to be in electrical contact with the second emitter region, a second electrode configured to be in electrical contact with the tunnel passivation structure, wherein within the range of a depth of 0.02-0.6μm from the surface of the first emitter layer in the ECV doping curve of the first emitter layer, the difference between the highest boron doping concentration and the lowest boron doping concentration in the first emitter layer is greater than 1 orders of magnitude, and within the range of 0.05-0.7μm from the surface of the second emitter region in the ECV doping curve of the second emitter region, the difference between the highest boron doping concentration and the lowest boron doping concentration in the second emitter region is less than 1 order of magnitude. an N-type silicon substrate having a first surface and a second surface, a tunnel passivation structure and a first passivation and anti-reflection film formed on the first surface, a boron-doped emitter structure layer formed on the second surface, wherein the emitter structure layer includes a first emitter layer and a second emitter region, wherein the junction depth of the first emitter layer is smaller than that of the second emitter region, the highest boron doping concentration of the first emitter layer is greater than that of the second emitter region, and the total boron doping amount of the first emitter layer is less than that of the second emitter region, a second passivation and anti-reflection film formed on the emitter structure layer, a first electrode configured to be in electrical contact with the second emitter region, a second electrode configured to be in electrical contact with the tunnel passivation structure, wherein within the range of a depth of 0.02-0.6μm from the surface of the first emitter layer in the ECV doping curve of the first emitter layer, the difference between the highest boron doping concentration and the lowest boron doping concentration in the first emitter layer is greater than 1 orders of magnitude, and within the range of 0.05-0.7μm from the surface of the second emitter region in the ECV doping curve of the second emitter region, the difference between the highest boron doping concentration and the lowest boron doping concentration in the second emitter region is less than 1 order of magnitude.
A cutting mechanism (34, 40) for a dunnage conversion machine that selectively cuts dunnage sheet stock drawable through the cutting mechanism (34, 40), the cutting mechanism (34, 40) comprising: a frame supporting opposed blades for cutting the sheet stock; and the opposed blades including a driven blade having a driven cutting edge and a biased blade having a biased cutting edge movable relative to one another, the driven cutting edge movable across a sheet stock path along which the dunnage sheet stock is movable between a ready position and a cut position removed from the ready position and in contact with the biased cutting edge, and the biased blade being biased toward the driven blade, and each of the driven cutting edge and the biased cutting edge are linear edges; wherein the biased cutting edge is biased across a movement path of the driven cutting edge when the driven cutting edge is in the ready position; and contact of the driven cutting edge with the biased cutting edge effects movement of the biased cutting edge out of a movement path of the driven cutting edge; characterized in that the biased cutting edge is pivotably biased towards the driven cutting edge such that contact of the opposed blades with one another occurs at a shear point that traverses an edge length of the biased cutting edge as the driven cutting edge moves between the ready position and the cut position to cut the sheet stock. a frame supporting opposed blades for cutting the sheet stock; and the opposed blades including a driven blade having a driven cutting edge and a biased blade having a biased cutting edge movable relative to one another, the driven cutting edge movable across a sheet stock path along which the dunnage sheet stock is movable between a ready position and a cut position removed from the ready position and in contact with the biased cutting edge, and the biased blade being biased toward the driven blade, and each of the driven cutting edge and the biased cutting edge are linear edges; wherein the biased cutting edge is biased across a movement path of the driven cutting edge when the driven cutting edge is in the ready position; and contact of the driven cutting edge with the biased cutting edge effects movement of the biased cutting edge out of a movement path of the driven cutting edge; characterized in that the biased cutting edge is pivotably biased towards the driven cutting edge such that contact of the opposed blades with one another occurs at a shear point that traverses an edge length of the biased cutting edge as the driven cutting edge moves between the ready position and the cut position to cut the sheet stock.
Method for the production of at least one window aperture in an elongated paper substrate, which is virtually subdivided into sections of sheets of paper transverse to its longitudinal axis, comprising the following steps: a) the paper substrate is provided with at least one watermark per sheet of paper section; b) the position of at least one watermark on the paper substrate is detected by means of at least one sensor unit, wherein the position of the at least one watermark per sheet of paper section is detected by means of the at least one sensor unit in the form of positional data and the detected positional data is converted to corrected positional data by means of an algorithm; c) the paper substrate is now fed to a unit for the production of apertures in the paper substrate, which are controlled in such a way that, on the basis of the position of the at least one watermark detected by the at least one sensor unit, at least one window aperture per sheet of paper section is generated in the paper substrate. a) the paper substrate is provided with at least one watermark per sheet of paper section; b) the position of at least one watermark on the paper substrate is detected by means of at least one sensor unit, wherein the position of the at least one watermark per sheet of paper section is detected by means of the at least one sensor unit in the form of positional data and the detected positional data is converted to corrected positional data by means of an algorithm; c) the paper substrate is now fed to a unit for the production of apertures in the paper substrate, which are controlled in such a way that, on the basis of the position of the at least one watermark detected by the at least one sensor unit, at least one window aperture per sheet of paper section is generated in the paper substrate.
A low surface temperature heating apparatus for installing in a room, the heating apparatus comprising: (i) a heat source having a front, a back, sides, and a top; (ii) a convection-improving apparatus, the convection-improving apparatus comprising a multiplicity of upwardly extending conduits, each having an inlet located at its lower end and an outlet at its upper end, the conduits being arranged such that the conduits are heated by the heat source; and wherein the conduits are arranged such that, when they are heated by the heat source, cold air from the room is drawn in through the inlets, heated by the respective conduits, and the heated air is released from the outlets, thereby creating a natural convection current, characterised in that the conduits are in front of, and spaced apart from the heat source, and the heating apparatus comprises: (iii) a cover, the cover being arranged to substantially enclose the convection-improving apparatus and the front, top and sides of the heat source. (i) a heat source having a front, a back, sides, and a top; (ii) a convection-improving apparatus, the convection-improving apparatus comprising a multiplicity of upwardly extending conduits, each having an inlet located at its lower end and an outlet at its upper end, the conduits being arranged such that the conduits are heated by the heat source; and wherein the conduits are arranged such that, when they are heated by the heat source, cold air from the room is drawn in through the inlets, heated by the respective conduits, and the heated air is released from the outlets, thereby creating a natural convection current, characterised in that the conduits are in front of, and spaced apart from the heat source, and the heating apparatus comprises: (iii) a cover, the cover being arranged to substantially enclose the convection-improving apparatus and the front, top and sides of the heat source. (iii) a cover, the cover being arranged to substantially enclose the convection-improving apparatus and the front, top and sides of the heat source.
A system comprising: a first switch (222; 320) having at least three positions that provide different couplings of a power source, a load, a power input of an uninterruptible power supply, UPS, and a power output of a UPS and comprising a first contact set configured to indicate at least one transition between positions of the at least three positions; characterised in that the system comprises a second switch (224; 330) configured to enable transition of the first switch (222; 320) between at least two of the positions and comprising a second contact set configured to indicate actuation of the second switch (224; 330), wherein movement of the first switch (222; 320) between a first position and a second position requires actuation of the second switch (224; 330) and wherein movement of the first switch (222; 320) between the second position and a third position does not require actuation of the second switch (224; 330). a first switch (222; 320) having at least three positions that provide different couplings of a power source, a load, a power input of an uninterruptible power supply, UPS, and a power output of a UPS and comprising a first contact set configured to indicate at least one transition between positions of the at least three positions; characterised in that the system comprises a second switch (224; 330) configured to enable transition of the first switch (222; 320) between at least two of the positions and comprising a second contact set configured to indicate actuation of the second switch (224; 330), wherein movement of the first switch (222; 320) between a first position and a second position requires actuation of the second switch (224; 330) and wherein movement of the first switch (222; 320) between the second position and a third position does not require actuation of the second switch (224; 330).
A wearable article comprising an elastic laminate, the elastic laminate comprising an inner nonwoven layer and an outer nonwoven layer, wherein the inner layer and the outer layer are directly joined with each other over an area of from about 5% to about 50% in that the inner layer and the outer layer are directly secured to each other by applying adhesive agents; the inner layer being closer to the body of the wearer than the outer layer when the article is worn, the inner layer having a first surface facing away from the outer layer and a second surface facing towards the outer layer, the outer layer having a higher hydrophilicity than the inner layer and having a first surface facing towards the inner layer and a second surface facing away from the inner layer, the inner layer being hydrophobic and the outer layer being hydrophilic; the laminate having a total caliper when subjected to the NMR MOUSE method as defined herein, the total caliper having a first sub-caliper corresponding to 50% of the total caliper starting from the outer layer's second surface and extending towards the inner layer's first surface, and a second sub-caliper corresponding to the remaining 50% of the total caliper starting from the inner layer's first surface and extending towards the outer layer's second surface, and wherein the elastic laminate has a Liquid Ratio of the first sub-caliper to the second sub-caliper of at least 1.1 after 1 minute according to the NMR MOUSE method set out herein; wherein, in the elastic laminate, the basis weight of the inner layer is not greater than the basis weight of the outer layer. the inner layer being closer to the body of the wearer than the outer layer when the article is worn, the inner layer having a first surface facing away from the outer layer and a second surface facing towards the outer layer, the outer layer having a higher hydrophilicity than the inner layer and having a first surface facing towards the inner layer and a second surface facing away from the inner layer, the inner layer being hydrophobic and the outer layer being hydrophilic; the laminate having a total caliper when subjected to the NMR MOUSE method as defined herein, the total caliper having a first sub-caliper corresponding to 50% of the total caliper starting from the outer layer's second surface and extending towards the inner layer's first surface, and a second sub-caliper corresponding to the remaining 50% of the total caliper starting from the inner layer's first surface and extending towards the outer layer's second surface, and wherein the elastic laminate has a Liquid Ratio of the first sub-caliper to the second sub-caliper of at least 1.1 after 1 minute according to the NMR MOUSE method set out herein; wherein, in the elastic laminate, the basis weight of the inner layer is not greater than the basis weight of the outer layer.
Method for producing a turbine component, having the steps of: - first step: providing a first part component having a superalloy, - second step: providing a second part component having a high-temperature steel, - third step: welding together the first part component and the second part component, forming a welding seam between the first part component and the second part component, - fourth step: heating the welding seam to a temperature which corresponds to 90% to 110% of the tempering temperature of the high-temperature steel. - first step: providing a first part component having a superalloy, - second step: providing a second part component having a high-temperature steel, - third step: welding together the first part component and the second part component, forming a welding seam between the first part component and the second part component, - fourth step: heating the welding seam to a temperature which corresponds to 90% to 110% of the tempering temperature of the high-temperature steel.
Acoustic communication and powering assembly, comprising: a transducer, configured to convert electrical energy into acoustic wave energy; an acoustic wave conductor; a sensor/actuator platform, comprising a sensor and/or actuator, sensor/actuator platform circuits, and an acoustic wave energy converter (208, 504), configured to convert acoustic wave energy into electrical power and to provide the electrical power to the sensor and/or actuator and the sensor/actuator platform circuits; wherein the transducer and the sensor/actuator platform are connected acoustically by the acoustic wave conductor; wherein the sensor/actuator platform further comprises an electrical signal to acoustic wave signal converter (208, 506), configured to convert electrical signals from the sensor and/or actuator into acoustic wave signals; wherein a frequency spectrum of the waves transporting the acoustic wave energy is lower than a frequency spectrum of the waves for the acoustic wave signals, the acoustic wave energy is ultrasonic energy. a transducer, configured to convert electrical energy into acoustic wave energy; an acoustic wave conductor; a sensor/actuator platform, comprising a sensor and/or actuator, sensor/actuator platform circuits, and an acoustic wave energy converter (208, 504), configured to convert acoustic wave energy into electrical power and to provide the electrical power to the sensor and/or actuator and the sensor/actuator platform circuits; wherein the transducer and the sensor/actuator platform are connected acoustically by the acoustic wave conductor; wherein the sensor/actuator platform further comprises an electrical signal to acoustic wave signal converter (208, 506), configured to convert electrical signals from the sensor and/or actuator into acoustic wave signals; wherein a frequency spectrum of the waves transporting the acoustic wave energy is lower than a frequency spectrum of the waves for the acoustic wave signals, the acoustic wave energy is ultrasonic energy.
Bioelectronic system, comprising at least i) in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells; ii) an electronic circuit applied to a semiconductor carrier and comprising at least one field-effect transistor; characterized in that the in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells according to i) is immobilized on the electronic circuit applied to the semiconductor carrier according to ii) and is arranged in conductive communication with the at least one field-effect transistor. i) in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells; ii) an electronic circuit applied to a semiconductor carrier and comprising at least one field-effect transistor;