mhurhangee/ep-ind-claims huggingface dataset:
A battery case for a lithium secondary battery made of a laminate sheet including an outer layer /barrier layer /inner layer structure, the battery case comprising: a first region that is a region configured to allow gas to be discharged or be expanded; and a second region that is a remaining region excluding the first region, characterized in that the laminate sheet constituting the first region contains a barrier layer having a slit formed therein, and characterized in that the slit is not formed at each of the inner layer and the outer layer of the laminate sheet in the first region. a first region that is a region configured to allow gas to be discharged or be expanded; and a second region that is a remaining region excluding the first region, characterized in that the laminate sheet constituting the first region contains a barrier layer having a slit formed therein, and characterized in that the slit is not formed at each of the inner layer and the outer layer of the laminate sheet in the first region.
A pre-polymerized catalyst component for the polymerization of olefins CH 2 =CHR, wherein R is hydrogen or a C 1 -C 12 hydrocarbon group, characterized by comprising a non-stereospecific solid catalyst component, comprising Ti, Mg and a halogen, said pre-polymerized catalyst component containing an amount of a (co)polymer of a monomer CH 2 =CHA selected from styrene, 4-Cl-styrene, alpha methylstyrene, and divinylbenzene, ranging from 0.1 up to 5g per g of said solid catalyst component wherein said non stereospecific solid catalyst component gives, under the standard propylene polymerization conditions described in the "general procedure for the standard propylene polymerization" section of the description, a propylene homopolymer having an insolubility in xylene at 25°C lower than 55%.
A method for preparing a porous lithium manganese phosphate-carbon composite material, the porous lithium manganese phosphate-carbon composite material wherein multiple nano-pores are distributed in the composite material, the composite material comprises lithium manganese phosphate material and 0.1 wt% to 30 wt% of carbon, and the lithium manganese phosphate material contains compounds in a general formula of LiMn x M 1-x PO 4, where M comprises any one of Fe, Co, Ni, Mg, Cu, Zn, Zr, Ti, Al, Cr and Ge, and 0.7≤x<0.8, the carbon is at least from amorphous carbon and/or carbon nanotubes and/or carbon nanofibers contained in the composite material, and when the carbon is from the carbon nanotubes and/or the carbon nanofibers contained in the composite material, a distance from the carbon nanotubes or carbon nanofibers to the surface of the compounds is less than 1 nm; the method for preparing a porous lithium manganese phosphate-carbon composite material characterized in that it comprises the following steps of: mixing a pyrophosphate material with a lithium source, or optionally further with one or more than two of a doped metal source, a phosphorous source and a carbon source, to obtain a reaction precursor, and then calcining the reaction precursor at a constant temperature under a protective atmosphere or an air atmosphere to obtain the porous lithium manganese phosphate-carbon composite material; and wherein the pyrophosphate material contains compounds in a general formula of (Mn x M 1-x) 2 P 2 O 7 and 0 wt% to 30 wt% of carbon, where M is any one of Fe, Co, Ni, Mg, Cu, Zn, Zr, Ti, Al, Cr and Ge, and where 0.7≤x<0.8.
A process analysis unit for determining an analyte in water, comprising a base module (14; 112) and an exchangeable cartridge module, wherein the base module does not comprise liquid fluidics, wherein the base module comprises a pump drive (16, 16') and an analyte sensor without a fluidic measuring section, and the cartridge module comprises the entire liquid fluidics, wherein the cartridge module comprises a liquid reservoir tank (40, 41), a sample taking device, a drive-less pump mechanism (36, 36') pumping the liquid from the reservoir tank (40, 41), and the fluidic measuring section for the analyte sensor, wherein, when the cartridge module is inserted in the base module, the pump mechanism (36, 36') is connected to the pump drive (16, 16') and is driven by the pump drive (16, 16'), and the fluidic measuring section is connected to the analyte sensor. the base module does not comprise liquid fluidics, wherein the base module comprises a pump drive (16, 16') and an analyte sensor without a fluidic measuring section, and the cartridge module comprises the entire liquid fluidics, wherein the cartridge module comprises a liquid reservoir tank (40, 41), a sample taking device, a drive-less pump mechanism (36, 36') pumping the liquid from the reservoir tank (40, 41), and the fluidic measuring section for the analyte sensor, wherein, when the cartridge module is inserted in the base module, the pump mechanism (36, 36') is connected to the pump drive (16, 16') and is driven by the pump drive (16, 16'), and the fluidic measuring section is connected to the analyte sensor.
A concrete container, comprising: a first concrete, having a vessel shape with an outer surface and an inner surface; and a second concrete, coating the outer surface of the first concrete, characterized in that the first concrete is more capable for shielding radiation than the second concrete, and the second concrete is less permeable than the first concrete, wherein the permeability is measured as hydraulic transmissivity, air permeability or ionic diffusivity. a first concrete, having a vessel shape with an outer surface and an inner surface; and a second concrete, coating the outer surface of the first concrete, characterized in that the first concrete is more capable for shielding radiation than the second concrete, and the second concrete is less permeable than the first concrete, wherein the permeability is measured as hydraulic transmissivity, air permeability or ionic diffusivity.
An orodispersible solid pharmaceutical dosage unit having a weight between 30 and 1,000 mg, said dosage unit consisting of: • 0.1-25 wt.% of estetrol particles containing at least 90 wt.% of an estetrol component selected from estetrol, estetrol esters and combinations thereof; and • 75-99.9 wt.% of one or more pharmaceutically acceptable ingredients; the solid dosage unit comprising at least 100 μg of the estetrol component; wherein the solid dosage unit can be obtained by a process comprising: • providing estetrol particles containing at least 90 wt.% of the estetrol component and having a volume median diameter of 2 μm to 50 μm; • mixing the estetrol particles with one or more granulation excipients to produce a granulation mixture; • mixing the granulation mixture with a granulation liquid to produce estetrol-containing granules, said granulation liquid containing at least 60 wt.% of liquid solvent; • removing liquid solvent from the estetrol-containing granules to produce dry estetrol-containing granules; • optionally mixing the dry granules with one or more tabletting excipients; and • forming the dry granules or the mixture of the dry granules and the one or more tabletting excipients into a solid dosage unit. • 0.1-25 wt.% of estetrol particles containing at least 90 wt.% of an estetrol component selected from estetrol, estetrol esters and combinations thereof; and • 75-99.9 wt.% of one or more pharmaceutically acceptable ingredients; the solid dosage unit comprising at least 100 μg of the estetrol component; wherein the solid dosage unit can be obtained by a process comprising: • providing estetrol particles containing at least 90 wt.% of the estetrol component and having a volume median diameter of 2 μm to 50 μm; • mixing the estetrol particles with one or more granulation excipients to produce a granulation mixture; • mixing the granulation mixture with a granulation liquid to produce estetrol-containing granules, said granulation liquid containing at least 60 wt.% of liquid solvent; • removing liquid solvent from the estetrol-containing granules to produce dry estetrol-containing granules; • optionally mixing the dry granules with one or more tabletting excipients; and • forming the dry granules or the mixture of the dry granules and the one or more tabletting excipients into a solid dosage unit.
A display apparatus comprising: an image display section for displaying an image on a display screen; a touch location detection section for detecting a touch location of an operator's finger on the display screen; characterized by a transfer length calculation section for calculating a transfer length from a touch start point to a touch end point of the operator's finger moving on the display screen while touching it, wherein the calculation is based on a detection result of the touch location detection section; a transfer length judgment section for judging whether or not the transfer length calculated by the transfer length calculation section is greater than a predetermined reference transfer length; a location shift calculation section for calculating a location shift of the operator's finger on the display screen indicative of a displacement of the operator's finger with respect to a straight track line from the touch start point to the touch end point based on the detection result of the touch location detection section; a location shift judgment section for judging whether or not the location shift calculated by the location shift calculation section is less than a predetermined reference location shift; and a screen split control section for controlling an operation of the image display section so that the display screen is split when the transfer length judgment section judges that the transfer length is greater than the reference transfer length and the location shift judgment section judges that the location shift is less than the reference location shift. an image display section for displaying an image on a display screen; a touch location detection section for detecting a touch location of an operator's finger on the display screen; characterized by a transfer length calculation section for calculating a transfer length from a touch start point to a touch end point of the operator's finger moving on the display screen while touching it, wherein the calculation is based on a detection result of the touch location detection section; a transfer length judgment section for judging whether or not the transfer length calculated by the transfer length calculation section is greater than a predetermined reference transfer length; a location shift calculation section for calculating a location shift of the operator's finger on the display screen indicative of a displacement of the operator's finger with respect to a straight track line from the touch start point to the touch end point based on the detection result of the touch location detection section; a location shift judgment section for judging whether or not the location shift calculated by the location shift calculation section is less than a predetermined reference location shift; and a screen split control section for controlling an operation of the image display section so that the display screen is split when the transfer length judgment section judges that the transfer length is greater than the reference transfer length and the location shift judgment section judges that the location shift is less than the reference location shift.
A pumping unit for use in a device for expressing human breast milk wherein the pumping unit comprises a breast shield for resting against a mother's breast and a dimensionally stable or approximately dimensionally stable milk collection container (1, 2) for receiving the expressed milk, wherein the breast shield comprises a first longitudinal centre axis (a), and the milk collection container (1, 2) comprises a second longitudinal centre axis (b), wherein the milk collection container (1, 2) is detachably attachable to the breast shield, and wherein in the attached state of the milk collection container (1,2) the first longitudinal centre axis (a) is arranged at an angle to the second longitudinal centre axis (b), wherein in the attached state the milk collection container (1, 2) is movable relative to the breast shield, and consequently the angle between the first longitudinal centre axis (a) and the second longitudinal centre axis (b) is variable, wherein there is a first and a second coupling part (31, 21; 23), which parts together enable the relative movement, wherein the first coupling part is arranged on the breast shield and the second coupling part (21, 23) is arranged on the milk collection container (1, 2), wherein the first coupling part together with the second coupling part (21, 23) form a ball joint which connects the milk collection container (1,2) with the breast shield, wherein within the ball joint a connection channel (4, 34) a connection channel (34, 24) is present, which connects an interior space of the breast shield with an interior space of the milk collection container in order to lead milk from the breast shield to the milk collection container (1, 2), characterized in that there exists a position of the breast shield in which the connection channel (34, 24) extends in direction of the second longitudinal centre axis (b) and that either a) the ball joint comprises a joint ball that is formed to or arranged on the breast shield, wherein the ball joint comprises a ball holder that is formed to or arranged on a lid of the milk collection container (1, 2) or that b) the ball joint comprises a joint ball that is formed to or arranged on a lid of the milk collection container (1, 2). a) the ball joint comprises a joint ball that is formed to or arranged on the breast shield, wherein the ball joint comprises a ball holder that is formed to or arranged on a lid of the milk collection container (1, 2) or that b) the ball joint comprises a joint ball that is formed to or arranged on a lid of the milk collection container (1, 2).
An assembled camshaft for an internal combustion engine, the camshaft comprising a base shaft and an external toothing extending at least partially axially along the base shaft, as well as at least one hub with an internal toothing, which correlates with the external toothing of the base shaft in such a way that the hub is rotationally fixed and axially non-displaceable connected to the base shaft, wherein the external toothing has at least one form-locking part region or a force-locking part region extending at least partially axially along the base shaft to arrange the hub at least in a form-locking or force-locking manner, and wherein at least one alignment region extending at least partially axially along the base shaft for angular alignment of the hub adjoins at least the form-locking part region or the force-locking part region, characterized in that the external toothing of at least the form-locking part region or the force-locking part region has at least two tooth spaces (3.3, 3.4) of different widths formed between the teeth (3.1, 3.2), and the internal toothing of the hub comprises at least one first tooth (8.1) correlating with the first tooth space (3.3) and having a first width (B8.1), and wherein the first tooth (8.1) of the hub with the first width (B8.1) forms a sliding fit with the first tooth space (3.3) of the base shaft, and wherein at least the force-locking connection of the hub with the base shaft for axial fixation of the hub consists of a press fit formed between at least the second tooth space (3.4) of the external toothing of the base shaft having a second width (B3.4) and the first tooth (8.1) of the internal toothing of the hub having the first width (B8.1), wherein the at least two tooth spaces (3.3, 3.4) of different widths of the external toothing are formed circumferentially in an alternating sequence, and wherein the internal toothing of the hub comprises at least one second tooth (8.2) with a second width (B8.2), and wherein the second tooth (8.2) forms a sliding fit with both the first tooth space (3.3) and the second tooth space (3.4) of the base shaft, and the first teeth (8.1) and the second teeth (8.2) are formed circumferentially in an alternating sequence.
A method for dimming at least one light-emitting means, such as, for example, one or more LED(s) or OLED(s), which light-emitting means is operated with a pulse-width-modulated current (i3, i4, i5), in which the duty cycle and/or the amplitude of the pulse-width-modulated current (i3, i4, i5) is adjustable depending on a desired color intensity or brightness of the light-emitting means, wherein in order to adjust the color intensity or brightness of the light-emitting means in a targeted manner, at least one pulse of the pulse-width-modulated current is omitted or skipped, and in which a duty cycle or amplitude designed for achieving the desired color intensity or brightness of the light-emitting means is determined, characterized in that if the determined duty cycle and/or amplitude is smaller than a minimum value, the desired color intensity or brightness of the light-emitting means is achieved in that the duty cycle and/or the amplitude is increased at least to the minimum value and at least one pulse of the pulse-width-modulated current is omitted.
An electric discharge machining device comprising: a circular blade; a motor coupled to the circular blade for rotating the circular blade; a drive spindle for coupling the circular blade to the motor; an electric discharge control system operatively coupled to the circular blade and a workpiece, the electric discharge control system causing the rotating circular blade to cut the workpiece at a speed greater than 400 revolutions per minute using electric discharge machining; and a wear sensor for detecting wear an the circular blade, the wear sensor comprising one of an infrared sensor, an induction sensor, a contacting sensor or a sensor including a laser; characterized in that the drive spindle includes an opening having a tapered surface; and the EDM device further comprises an electrical contactor electrically coupled to the electric discharge control system, the electrical contactor including an exterior surface for mating engagement with the tapered surface of the opening. a circular blade; a motor coupled to the circular blade for rotating the circular blade; a drive spindle for coupling the circular blade to the motor; an electric discharge control system operatively coupled to the circular blade and a workpiece, the electric discharge control system causing the rotating circular blade to cut the workpiece at a speed greater than 400 revolutions per minute using electric discharge machining; and a wear sensor for detecting wear an the circular blade, the wear sensor comprising one of an infrared sensor, an induction sensor, a contacting sensor or a sensor including a laser; characterized in that the drive spindle includes an opening having a tapered surface; and the EDM device further comprises an electrical contactor electrically coupled to the electric discharge control system, the electrical contactor including an exterior surface for mating engagement with the tapered surface of the opening.
An axial field rotary energy device, comprising: a housing; a plurality of rotors rotatably mounted to the housing, wherein the rotors comprise an axis and a plurality of magnets; and a stator mounted to the housing coaxially with the rotors, the stator comprises a printed circuit board "PCB" having a plurality of PCB layers, each PCB layer comprising a respective plurality of coils that are co-planar and angularly and symmetrically spaced apart from each other relative to the axis, each coil is continuous and concentric in a single plane from an outermost coil portion to a concentric innermost coil portion, and the coils in adjacent PCB layers are circumferentially aligned with each other relative to the axis to define symmetric stacks of coils in an axial direction, each coil includes a first terminal at the outer edge of the coil, and a second terminal in the center of the coil, wherein each coil is not directly connected to an adjacent coil on the same PCB layer, but is directly connected to a corresponding coil on another PCB layer through a via to create a coil pair; each coil pair is electrically coupled to another coil pair through another via. a housing; a plurality of rotors rotatably mounted to the housing, wherein the rotors comprise an axis and a plurality of magnets; and a stator mounted to the housing coaxially with the rotors, the stator comprises a printed circuit board "PCB" having a plurality of PCB layers, each PCB layer comprising a respective plurality of coils that are co-planar and angularly and symmetrically spaced apart from each other relative to the axis, each coil is continuous and concentric in a single plane from an outermost coil portion to a concentric innermost coil portion, and the coils in adjacent PCB layers are circumferentially aligned with each other relative to the axis to define symmetric stacks of coils in an axial direction, each coil includes a first terminal at the outer edge of the coil, and a second terminal in the center of the coil, wherein each coil is not directly connected to an adjacent coil on the same PCB layer, but is directly connected to a corresponding coil on another PCB layer through a via to create a coil pair; each coil pair is electrically coupled to another coil pair through another via.
Apparatus for depositing a polymer layer containing nanomaterial on a substrate material, the apparatus comprising - a carrier for carrying the substrate material; - a transport structure for providing a polymerization material near a surface of the substrate material, and conducting a flow near the surface of the substrate material, the flow comprising a nanomaterial; - a plasma chamber wherein a plasma electrode structure is arranged for depositing the polymer layer containing nanomaterial on the surface of the substrate material by applying a plasma polymerization process, wherein the apparatus is arranged for performing a plasma polymerization process under substantially atmospheric pressure, characterised in that the plasma electrode structure comprises either - two electrodes arranged on opposite sides of a dielectric, respectively, or - two electrodes embedded in a dielectric, or - a plasma jet source. - a carrier for carrying the substrate material; - a transport structure for providing a polymerization material near a surface of the substrate material, and conducting a flow near the surface of the substrate material, the flow comprising a nanomaterial; - a plasma chamber wherein a plasma electrode structure is arranged for depositing the polymer layer containing nanomaterial on the surface of the substrate material by applying a plasma polymerization process, wherein the apparatus is arranged for performing a plasma polymerization process under substantially atmospheric pressure, characterised in that the plasma electrode structure comprises either - two electrodes arranged on opposite sides of a dielectric, respectively, or - two electrodes embedded in a dielectric, or - a plasma jet source. - two electrodes arranged on opposite sides of a dielectric, respectively, or - two electrodes embedded in a dielectric, or - a plasma jet source.