mhurhangee/ep-ind-claims huggingface dataset:
A pouch-type secondary battery comprising: an electrode assembly in which a positive electrode, a separator, and a negative electrode are laminated; and a pouch comprising an upper pouch and a lower pouch and configured to accommodate the electrode assembly, wherein the pouch comprises: a surface protection layer made of a first polymer and formed at an outermost layer; a sealant layer made of a second polymer and formed at an innermost layer; a gas barrier layer made of a first metal and laminated between the surface protection layer and the sealant layer; and a metal foil layer made of a second metal, laminated between the surface protection layer and the sealant layer, and connected to the negative electrode of the electrode assembly, wherein the metal foil layer is connected to a negative electrode lead extending from the negative electrode so as to be connected to the negative electrode, and portions of the surface protection layer, the sealant layer, and the gas barrier layer are removed from a specific area corresponding to an area on which the negative electrode lead exists in the upper pouch and the lower pouch. an electrode assembly in which a positive electrode, a separator, and a negative electrode are laminated; and a pouch comprising an upper pouch and a lower pouch and configured to accommodate the electrode assembly, wherein the pouch comprises: a surface protection layer made of a first polymer and formed at an outermost layer; a sealant layer made of a second polymer and formed at an innermost layer; a gas barrier layer made of a first metal and laminated between the surface protection layer and the sealant layer; and a metal foil layer made of a second metal, laminated between the surface protection layer and the sealant layer, and connected to the negative electrode of the electrode assembly, wherein the metal foil layer is connected to a negative electrode lead extending from the negative electrode so as to be connected to the negative electrode, and portions of the surface protection layer, the sealant layer, and the gas barrier layer are removed from a specific area corresponding to an area on which the negative electrode lead exists in the upper pouch and the lower pouch. a surface protection layer made of a first polymer and formed at an outermost layer; a sealant layer made of a second polymer and formed at an innermost layer; a gas barrier layer made of a first metal and laminated between the surface protection layer and the sealant layer; and a metal foil layer made of a second metal, laminated between the surface protection layer and the sealant layer, and connected to the negative electrode of the electrode assembly, wherein the metal foil layer is connected to a negative electrode lead extending from the negative electrode so as to be connected to the negative electrode, and portions of the surface protection layer, the sealant layer, and the gas barrier layer are removed from a specific area corresponding to an area on which the negative electrode lead exists in the upper pouch and the lower pouch.
Method for operating a winding device for a textile machine producing cross-wound bobbins with a pivotably mounted creel for holding a cross-wound bobbin, and with a damping mechanism for damping creel oscillations, the damping being brought about by the magnetic force action between an electric coil and a ferromagnetic component, characterised in that the creel oscillation is measured and the current (i) through the electric coil is continuously adjusted as a function of the creel oscillation.
An all-terrain vehicle, comprising: a motor; a controller electrically coupled to the motor; a cab, a driver seat and a passenger seat being arranged in the cab; an electronic shifter electrically coupled to the controller and arranged between the driver seat and the passenger seat; and a parking brake arranged in the cab, characterized in that the parking brake is also arranged between the driver seat and the passenger seat and spaced apart from the electronic shifter; and the electronic shifter is closer to the driver seat than the parking brake, and the parking brake is located on a rear side of the electronic shifter. a motor; a controller electrically coupled to the motor; a cab, a driver seat and a passenger seat being arranged in the cab; an electronic shifter electrically coupled to the controller and arranged between the driver seat and the passenger seat; and a parking brake arranged in the cab, characterized in that the parking brake is also arranged between the driver seat and the passenger seat and spaced apart from the electronic shifter; and the electronic shifter is closer to the driver seat than the parking brake, and the parking brake is located on a rear side of the electronic shifter.
A method of manufacturing a buried word line structure, comprising: providing a semiconductor substrate; injecting target ions into the semiconductor substrate to form an injected region in the semiconductor substrate; annealing the semiconductor substrate comprising the injected region to convert the injected region into an insulation region; forming a word line trench (91, 92) in the insulation region; and filling the word line trench (91, 92) with a word line metal (111, 112) to form the buried word line structure, characterized in that, the method further comprises: before injecting target ions into the semiconductor substrate, forming a first mask layer on an upper surface of the semiconductor substrate, wherein the first mask layer comprises a first opening configured to partially expose the upper surface of the semiconductor substrate; and before forming the word line trench in the insulation region, forming a second mask layer (71, 72) on the upper surface of the semiconductor substrate, wherein the second mask layer (71, 72) comprises a second opening (81, 82) configured to partially expose the upper surface of the insulation region, and the second opening (81, 82) is smaller than the first opening. providing a semiconductor substrate; injecting target ions into the semiconductor substrate to form an injected region in the semiconductor substrate; annealing the semiconductor substrate comprising the injected region to convert the injected region into an insulation region; forming a word line trench (91, 92) in the insulation region; and filling the word line trench (91, 92) with a word line metal (111, 112) to form the buried word line structure, characterized in that, the method further comprises: before injecting target ions into the semiconductor substrate, forming a first mask layer on an upper surface of the semiconductor substrate, wherein the first mask layer comprises a first opening configured to partially expose the upper surface of the semiconductor substrate; and before forming the word line trench in the insulation region, forming a second mask layer (71, 72) on the upper surface of the semiconductor substrate, wherein the second mask layer (71, 72) comprises a second opening (81, 82) configured to partially expose the upper surface of the insulation region, and the second opening (81, 82) is smaller than the first opening. before injecting target ions into the semiconductor substrate, forming a first mask layer on an upper surface of the semiconductor substrate, wherein the first mask layer comprises a first opening configured to partially expose the upper surface of the semiconductor substrate; and before forming the word line trench in the insulation region, forming a second mask layer (71, 72) on the upper surface of the semiconductor substrate, wherein the second mask layer (71, 72) comprises a second opening (81, 82) configured to partially expose the upper surface of the insulation region, and the second opening (81, 82) is smaller than the first opening.
A catalyst system comprising a supported catalyst containing a) a solid support, which is a solid methylaluminoxane composition wherein: i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and b) a catalyst thereon which is a metal complex of the formula CyLMZ p, wherein M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom. a) a solid support, which is a solid methylaluminoxane composition wherein: i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and i) the aluminum content is in the range of 36 to 41 wt%, based on the solid methylaluminoxane composition, and ii) the mole fraction of methyl groups derived from the trimethylaluminum component relative to the total number of moles of methyl groups is 12 mol % or lower and b) a catalyst thereon which is a metal complex of the formula CyLMZ p, wherein M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom. M is titanium Z is an anionic ligand, p is number of 1 to 2, preferably 2, Cy is a cyclopentadienyl-type ligand and L is an amidinate ligand of the formula wherein the amidine-containing ligand is covalently bonded to the metal M via the imine nitrogen atom, and Sub1 is a substituent comprising a group 14 atom through which Sub1 is bonded to the imine carbon atom and Sub2 is a substituent comprising a heteroatom of group 15, through which Sub2 is bonded to the imine carbon atom.
Method for operating a lighting apparatus of a motor vehicle, wherein the lighting apparatus includes a light source for providing a light beam and a deflecting apparatus for deflecting the light beam with a first deflecting angle, which can be specified by a control apparatus, in a first deflection direction and with a second deflecting angle, which can be specified by the control apparatus, in a second deflection direction angled to the first deflection direction, wherein by means of the control apparatus the first deflecting angle is varied across a first angle range defined by first limiting angles, wherein during the variation of the first deflecting angle across the first angle range on the part of the control apparatus the second deflecting angle is varied, in order to scan several times a second angle range defined by second limiting angles, wherein the second limiting angles are predetermined depending on the respectively set first deflecting angle, characterised in that the deflecting apparatus includes at least one micromirror controlled electrostatically or electromagnetically, which at least in the second deflection direction is deflected such that it oscillates, wherein current pulses or voltage pulses are used to excite the oscillation, wherein the amplitude of the oscillation is adapted by a pulse width modulation of the current pulses or voltage pulses and/or by an adaptation of the frequency of this control voltage or of this control current.
A fitment assembly for one or a plurality of food or beverage containers, each container comprising at least one ingredient for the preparation of a food or beverage product, the fitment assembly comprising at least one fluid inlet connected to the inner volume of the container through at least one injection hole through which a fluid can be supplied into the food or beverage containers, and at least one dispensing outlet through which the food or beverage product is dispensed; characterized in that the fitment assembly comprises two parts relatively moveable with respect to each other such that this relative movement opens or closes the communication of the inner volume of the containers with two apertures (16, 16') allowing that the prepared beverage flows through dedicated channels in the fitment assembly directing the beverage towards the dispensing outlet.
A processor-readable medium storing code representing instructions that when executed by a processor of a printer controller cause the processor to: separate (502, 608) image data into dark color data and light color data; print (506, 614, 616) the dark color data in a first printing direction and the light color data in a second printing direction, wherein printing (506, 614, 616) the dark color data in the first printing direction and the light color data in the second printing direction comprises: printing dark color ink onto a print medium only in forward passes of a printhead over the print medium; and printing light color ink onto the print medium only in reverse passes of the printhead over the print medium; or printing light color ink onto a print medium only in forward passes of a printhead over the print medium; and printing dark color ink onto the print medium only in reverse passes of the printhead over the print medium. separate (502, 608) image data into dark color data and light color data; print (506, 614, 616) the dark color data in a first printing direction and the light color data in a second printing direction, wherein printing (506, 614, 616) the dark color data in the first printing direction and the light color data in the second printing direction comprises: printing dark color ink onto a print medium only in forward passes of a printhead over the print medium; and printing light color ink onto the print medium only in reverse passes of the printhead over the print medium; or printing light color ink onto a print medium only in forward passes of a printhead over the print medium; and printing dark color ink onto the print medium only in reverse passes of the printhead over the print medium. printing dark color ink onto a print medium only in forward passes of a printhead over the print medium; and printing light color ink onto the print medium only in reverse passes of the printhead over the print medium; or printing light color ink onto a print medium only in forward passes of a printhead over the print medium; and printing dark color ink onto the print medium only in reverse passes of the printhead over the print medium.
Transformer core having a core interior made from magnetizable material, wherein a screen is arranged at least partially around the core interior, wherein the screen has a laminated structure comprising at least one magnetizable material, and wherein a device for producing an axial pressure on the core interior is arranged between the core interior and the screen, characterized in that the screen is subdivided into segments and the laminated structure of the screen is aligned parallel with a possible stray flux direction of an external magnetic field.
An electromagnetic metering valve, in particular for an SCR metering unit for aftertreatment of the exhaust gas of an internal combustion engine, comprising an electromagnet having a cylindrical solenoid, an inner, essentially hollow cylindrical and an outer, essentially pot-shaped iron yoke (66, 68), and a ring- or disk-shaped, axially displaceable armature for actuating a closing mechanism of a valve nozzle, whereby the armature is able to close and open a magnetic circuit between the inner and the outer iron yoke (66, 68) at one axial end of the electromagnet by axial displacement, characterized in that - the armature is guided by an armature seat, and - the armature seat is resiliently guided and supported in the direction of the electromagnet by a spring element, and in the direction of the valve nozzle, by a centering element. - the armature is guided by an armature seat, and - the armature seat is resiliently guided and supported in the direction of the electromagnet by a spring element, and in the direction of the valve nozzle, by a centering element.
An electronic device comprising: a resin molding; a conductive cable including a conductor; and a supporting body supporting the conductive cable, wherein one end portion of the conductive cable protrudes from the supporting body, wherein the one end portion of the conductive cable and the supporting body are embedded in the resin molding, a surface of the resin molding exposes an end surface on the one end portion side of the conductive cable and includes a continuous surface which is continuous with the end surface, and the electronic device further includes a wiring (40f, 40i) formed on the end surface and the continuous surface to be connected to the conductor in the end surface. a resin molding; a conductive cable including a conductor; and a supporting body supporting the conductive cable, wherein one end portion of the conductive cable protrudes from the supporting body, wherein the one end portion of the conductive cable and the supporting body are embedded in the resin molding, a surface of the resin molding exposes an end surface on the one end portion side of the conductive cable and includes a continuous surface which is continuous with the end surface, and the electronic device further includes a wiring (40f, 40i) formed on the end surface and the continuous surface to be connected to the conductor in the end surface.
An apparatus for generating intermediate cryptogram data corresponding to a dynamic password for a first cryptographic scheme, the intermediate cryptogram data being suitable for display using a CAP-compatible device designed for a second cryptographic scheme for generating a password, wherein said second cryptographic scheme is a Chip Authentication Program scheme, the apparatus comprising: a communications interface for communicating with a said CAP-compatible device; and a processor coupled to a memory, the memory storing processor control code to control the processor whereby said processor is configured to: generate a dynamic password according to the first cryptographic scheme; and generate intermediate cryptogram data from said dynamic password by converting the password into binary data using a process that is the reverse of the decimalisation process employed by a CAP-compatible device and padding the binary data in a manner that is the reverse of the compression process employed by a CAP-compatible device, whereby the intermediate cryptogram data is suitable for outputting to the said device so that, when the said device processes said intermediate cryptogram data according to the second cryptographic scheme to generate a password, the said device outputs said dynamic password generated by the first cryptographic scheme. a communications interface for communicating with a said CAP-compatible device; and a processor coupled to a memory, the memory storing processor control code to control the processor whereby said processor is configured to: generate a dynamic password according to the first cryptographic scheme; and generate intermediate cryptogram data from said dynamic password by converting the password into binary data using a process that is the reverse of the decimalisation process employed by a CAP-compatible device and padding the binary data in a manner that is the reverse of the compression process employed by a CAP-compatible device, whereby the intermediate cryptogram data is suitable for outputting to the said device so that, when the said device processes said intermediate cryptogram data according to the second cryptographic scheme to generate a password, the said device outputs said dynamic password generated by the first cryptographic scheme. generate a dynamic password according to the first cryptographic scheme; and generate intermediate cryptogram data from said dynamic password by converting the password into binary data using a process that is the reverse of the decimalisation process employed by a CAP-compatible device and padding the binary data in a manner that is the reverse of the compression process employed by a CAP-compatible device, whereby the intermediate cryptogram data is suitable for outputting to the said device so that, when the said device processes said intermediate cryptogram data according to the second cryptographic scheme to generate a password, the said device outputs said dynamic password generated by the first cryptographic scheme.
A percutaneous heart valve prosthesis comprising: a valve body having a valve body first end, a valve body second end and a passage extending along a longitudinal axis between said valve body first end and said valve body second end, said valve body being collapsible about said longitudinal axis for delivery via catheter, wherein said valve body tapers toward said valve body first end, said valve body first end being sized to pass through a valve orifice associated with a heart valve to be replaced, said valve body second end being sized so as not to pass through a valve orifice; and one or more flexible valve elements (3, 4) secured to said valve body and extending across said passage for blocking bloodflow in one direction through said passage; and a flexible skirt extending about a periphery of said valve body for blocking bloodflow in said one direction between said valve body and the native wall of the valve orifice in use; characterised in that said one direction is a direction from said valve body second end to said valve body first end. a valve body having a valve body first end, a valve body second end and a passage extending along a longitudinal axis between said valve body first end and said valve body second end, said valve body being collapsible about said longitudinal axis for delivery via catheter, wherein said valve body tapers toward said valve body first end, said valve body first end being sized to pass through a valve orifice associated with a heart valve to be replaced, said valve body second end being sized so as not to pass through a valve orifice; and one or more flexible valve elements (3, 4) secured to said valve body and extending across said passage for blocking bloodflow in one direction through said passage; and a flexible skirt extending about a periphery of said valve body for blocking bloodflow in said one direction between said valve body and the native wall of the valve orifice in use; characterised in that said one direction is a direction from said valve body second end to said valve body first end.