mhurhangee/ep-ind-claims huggingface dataset:
A battery cell, comprising: a shell, wherein the shell has a wall portion; an electrode assembly, wherein the electrode assembly is accommodated in the shell; and a pressure relief mechanism, wherein the pressure relief mechanism is provided on the wall portion, the pressure relief mechanism comprises a weak portion, a body portion, and a connecting portion, the weak portion is configured to be damaged when pressure inside the shell reaches a threshold so as to relieve the pressure, the body portion is located in a region defined by the weak portion, and the connecting portion is located on an outer side of the weak portion and configured to connect the wall portion; wherein the body portion protrudes relative to the connecting portion in a direction away from the electrode assembly, and a first concave portion is formed in the pressure relief mechanism at a position corresponding to the body portion on a side facing the electrode assembly. a shell, wherein the shell has a wall portion; an electrode assembly, wherein the electrode assembly is accommodated in the shell; and a pressure relief mechanism, wherein the pressure relief mechanism is provided on the wall portion, the pressure relief mechanism comprises a weak portion, a body portion, and a connecting portion, the weak portion is configured to be damaged when pressure inside the shell reaches a threshold so as to relieve the pressure, the body portion is located in a region defined by the weak portion, and the connecting portion is located on an outer side of the weak portion and configured to connect the wall portion; wherein the body portion protrudes relative to the connecting portion in a direction away from the electrode assembly, and a first concave portion is formed in the pressure relief mechanism at a position corresponding to the body portion on a side facing the electrode assembly.
A method to remove an adhesive label from a bobbin, the bobbin including an end portion and an outer surface, the method including: ∘ providing a bobbin of a coiled sheet closed by an adhesive label positioned on top of the end portion of the coiled sheet to attach the same to the outer surface of the bobbin; ∘ locating the adhesive label; characterized in that the method also comprises: ∘ applying a sucking force to the location of the adhesive label so as to detach the adhesive label and the end portion of the coiled sheet from the bobbin; and o cutting a part of the detached end portion including the adhesive label from the bobbin. ∘ providing a bobbin of a coiled sheet closed by an adhesive label positioned on top of the end portion of the coiled sheet to attach the same to the outer surface of the bobbin; ∘ locating the adhesive label; ∘ applying a sucking force to the location of the adhesive label so as to detach the adhesive label and the end portion of the coiled sheet from the bobbin; and o cutting a part of the detached end portion including the adhesive label from the bobbin.
A rifle scope comprising: a scope body; a movable optical element defining an optical axis connected to the scope body; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw; the turret having a knob operably coupled to the screw to adjust the position of the screw; the turret having an elevation cam disc that comprises a rotating element operably coupled to the knob; the turret having a stop element; the elevation cam disc of the turret defining a first stop surface positioned for engagement by the turret stop element to limit rotation of the turret, such that the position at which the stop element engages the first stop surface defines a first limiting position of the screw and the movable optical element; the elevation cam disc of the turret defining a second stop surface positioned for engagement by the turret stop element to limit rotation of the turret, such that the position at which the stop element engages the second stop surface defines a second limiting position of the screw and the moveable optical element, wherein the elevation cam disc comprises a recessed spiral channel which is defined by multiple circular arc segments concentric on a central axis, with the circular arc segments joined by angular transition segments (194, 196), said channel terminating in said first and second stop surfaces (198, 200). a scope body; a movable optical element defining an optical axis connected to the scope body; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw; the turret having a knob operably coupled to the screw to adjust the position of the screw; the turret having an elevation cam disc that comprises a rotating element operably coupled to the knob; the turret having a stop element; the elevation cam disc of the turret defining a first stop surface positioned for engagement by the turret stop element to limit rotation of the turret, such that the position at which the stop element engages the first stop surface defines a first limiting position of the screw and the movable optical element; the elevation cam disc of the turret defining a second stop surface positioned for engagement by the turret stop element to limit rotation of the turret, such that the position at which the stop element engages the second stop surface defines a second limiting position of the screw and the moveable optical element, wherein the elevation cam disc comprises a recessed spiral channel which is defined by multiple circular arc segments concentric on a central axis, with the circular arc segments joined by angular transition segments (194, 196), said channel terminating in said first and second stop surfaces (198, 200).
A control system including: a work piece having an adjustable functionality; a configuration device associated with the work piece and responsive to one or more control signals, the configuration device affecting one or more selective adjustments to the adjustable functionality; an input device for generating one or more input signals in response to one or more predetermined manual inputs from an operator; and a controller for providing the control signals, the controller being implemented in a graphical user environment and being responsive to the input signals such that the selective adjustments made to the adjustable functionality are substantially proportional, wherein the controller includes: a processor for operating a GUI and for providing the control signals; a display, having a viewing area in which both the GUI and a cursor are displayed, the display being responsive to the controller, and the cursor being movable about the viewing area in response to the input signals, wherein a visual representation is associated with the cursor, the representation corresponding to the region over which the cursor lies, characterized in that the GUI includes a separate graphical indicator of the command corresponding to the region over which the cursor lies. a work piece having an adjustable functionality; a configuration device associated with the work piece and responsive to one or more control signals, the configuration device affecting one or more selective adjustments to the adjustable functionality; an input device for generating one or more input signals in response to one or more predetermined manual inputs from an operator; and a controller for providing the control signals, the controller being implemented in a graphical user environment and being responsive to the input signals such that the selective adjustments made to the adjustable functionality are substantially proportional, wherein the controller includes: a processor for operating a GUI and for providing the control signals; a display, having a viewing area in which both the GUI and a cursor are displayed, the display being responsive to the controller, and the cursor being movable about the viewing area in response to the input signals, wherein a visual representation is associated with the cursor, the representation corresponding to the region over which the cursor lies, characterized in that the GUI includes a separate graphical indicator of the command corresponding to the region over which the cursor lies. a processor for operating a GUI and for providing the control signals; a display, having a viewing area in which both the GUI and a cursor are displayed, the display being responsive to the controller, and the cursor being movable about the viewing area in response to the input signals, wherein a visual representation is associated with the cursor, the representation corresponding to the region over which the cursor lies, characterized in that the GUI includes a separate graphical indicator of the command corresponding to the region over which the cursor lies.
A method for distinguishing biological materials, the method comprising: providing at least one segmented image of at least two confluent cells; applying a distance transform to the at least one segmented image of the confluent cells; applying a region growing technique to the distance transform of the at least one segmented image of the confluent cells to form a region grown image, wherein a plurality of regions are formed around local intensity maxima in the distance transform of the at least one segmented image of the confluent cells; applying a merging technique to neighboring regions, wherein the merging technique comprises the steps of: for each pair of neighboring regions, a. finding the maximum intensity of both the regions (P1 and P2); b. finding the maximum intensity along an intersecting boundary of the two regions; c. finding the two boundary points along the intersecting boundary and calculating the Euclidian distance between the boundary points (merge_distance); d. merging the regions if (P1-V) 2 + (P2-V) 2 <=merge_distance. providing at least one segmented image of at least two confluent cells; applying a distance transform to the at least one segmented image of the confluent cells; applying a region growing technique to the distance transform of the at least one segmented image of the confluent cells to form a region grown image, wherein a plurality of regions are formed around local intensity maxima in the distance transform of the at least one segmented image of the confluent cells; applying a merging technique to neighboring regions, wherein the merging technique comprises the steps of: for each pair of neighboring regions, a. finding the maximum intensity of both the regions (P1 and P2); b. finding the maximum intensity along an intersecting boundary of the two regions; c. finding the two boundary points along the intersecting boundary and calculating the Euclidian distance between the boundary points (merge_distance); d. merging the regions if (P1-V) 2 + (P2-V) 2 <=merge_distance. a. finding the maximum intensity of both the regions (P1 and P2); b. finding the maximum intensity along an intersecting boundary of the two regions; c. finding the two boundary points along the intersecting boundary and calculating the Euclidian distance between the boundary points (merge_distance); d. merging the regions if (P1-V) 2 + (P2-V) 2 <=merge_distance.
A method of wireless communication, comprising: receiving, by a user equipment, UE, a master information block, MIB, that indicates a location of one or more system information blocks, SIBs; receiving, by the UE, the one or more SIBs based at least in part on the MIB, wherein the one or more SIBs indicate a list of channels for frequency hopping in an unlicensed radio frequency spectrum band; and communicating, by the UE, by frequency hopping on a plurality of channels, included in the list of channels, based at least in part on the indication in the one or more SIBs, wherein the MIB further indicates whether the list of channels has changed from a previously indicated list. receiving, by a user equipment, UE, a master information block, MIB, that indicates a location of one or more system information blocks, SIBs; receiving, by the UE, the one or more SIBs based at least in part on the MIB, wherein the one or more SIBs indicate a list of channels for frequency hopping in an unlicensed radio frequency spectrum band; and communicating, by the UE, by frequency hopping on a plurality of channels, included in the list of channels, based at least in part on the indication in the one or more SIBs, wherein the MIB further indicates whether the list of channels has changed from a previously indicated list.
A method for producing a blank for a packing, which includes a cellulose containing base material with at least one line (50, 52, 54, 56, 60, 62, 64, 66, 68, 70, 72, 74, 76, 78, 80, 82, 92) from the group of the folding, score, cutting, groove and/or bending lines, characterized in that the at least one line (50, 52, 54, 56, 60, 62, 64, 66, 68, 70, 72, 74, 76, 78, 80, 82, 92) is defined at least in sections by applying at least one hygroscopic substance to the base material, wherein at least one hygroscopic substance from the group of the hygroscopic solids, gels and/or liquids is applied to the base material, and wherein the blank is dried after applying the at least one hygroscopic substance.
A composition comprising 98 wt% to 99.999 wt% of a water source comprising at least 4 wt% non-polymeric solids dissolved therein; one or more coupling agents, one or more water soluble or dispersible nonionic surfactants, one or more zwitterionic surfactants, one or more anionic surfactants, and optionally one or more additional ionic surfactants.
A data reflecting method for reflecting data of a transfer source system to a transfer destination system, the method comprising: determining, on the basis of a column name and a table name included in data to be processed and a column name and a table name stored in a parallel key definition file in which a parallel key for determining whether a plurality of data are processed in parallel, and includes the column name and the table name included in the respective data is defined, whether the respective data among the plurality of the data to be processed are executable in parallel; and reflecting the each data to the transfer destination system in parallel when the data are determined to be executable in parallel. determining, on the basis of a column name and a table name included in data to be processed and a column name and a table name stored in a parallel key definition file in which a parallel key for determining whether a plurality of data are processed in parallel, and includes the column name and the table name included in the respective data is defined, whether the respective data among the plurality of the data to be processed are executable in parallel; and reflecting the each data to the transfer destination system in parallel when the data are determined to be executable in parallel.
Leaf stripping machine for removing leaves from tree crops comprising an operating head provided with leaf removal means, and further comprising a sensor device for detecting the presence of the vegetation and protecting the fruit from contact with the above-mentioned leaf removal means, comprising a screen mounted rotatable on the operating head about an axis of rotation due to the thrust exerted by the vegetation contrasted by the action of thrust means, preferably springs, acting on said screen, characterizsed in that said screen operating between a position of complete closure on the operating head and a position of complete opening with respect to said operating head over an operating angle (β).
A cosmetic makeup or care process that consists in applying to the skin microgels or a cosmetic product comprising said microgels, said microgels being obtainable by aqueous phase precipitation polymerization of the following three monomers in the presence of a crosslinking agent: - di(ethylene glycol) methyl ether methacrylate (M 2 MA), - an oligo(ethylene glycol) methyl ether methacrylate (M n MA) n being an integer ranging from 3 to 12, - a monomer of formula CR 1 R 2 =CR 3 R 4 in which R 1, R 2, R 3 and R 4 represent a hydrogen, a halogen or a hydrocarbon group, on condition that at least one of the four groups comprises a -COOH or -COO - M + group, M + representing a cation, said cosmetic product comprising, besides microgels, at least one compound chosen from the group consisting of surfactants, oils, biologically active products, pigments and dyes. - di(ethylene glycol) methyl ether methacrylate (M 2 MA), - an oligo(ethylene glycol) methyl ether methacrylate (M n MA) n being an integer ranging from 3 to 12, - a monomer of formula CR 1 R 2 =CR 3 R 4 in which R 1, R 2, R 3 and R 4 represent a hydrogen, a halogen or a hydrocarbon group, on condition that at least one of the four groups comprises a -COOH or -COO - M + group, M + representing a cation,
A device for making climbing plants such as tomato plants or cucumber plants grow substantially in vertical direction, comprising: - a rotatable holder element provided with climbing medium, such as wire or string, which extends vertically downward from the holder element, at least in use, wherein a length of the climbing medium extending from the holder element can be adjusted by rotation of the holder element; - a brake assembly which is configured to prevent rotation of the holder element in an actuated position and to allow rotation of the holder element in a non-actuated position, wherein the brake assembly comprises an escapement mechanism, wherein the device comprises a cogwheel that is operatively connected to the holder element, wherein the escapement mechanism is configured to engage the cogwheel, characterised in that the escapement mechanism is configured to act on the holder element in such a manner that in the non-actuated position of the brake assembly the holder element can only rotate through a limited angle. - a rotatable holder element provided with climbing medium, such as wire or string, which extends vertically downward from the holder element, at least in use, wherein a length of the climbing medium extending from the holder element can be adjusted by rotation of the holder element; - a brake assembly which is configured to prevent rotation of the holder element in an actuated position and to allow rotation of the holder element in a non-actuated position, wherein the brake assembly comprises an escapement mechanism, wherein the device comprises a cogwheel that is operatively connected to the holder element, wherein the escapement mechanism is configured to engage the cogwheel, characterised in that the escapement mechanism is configured to act on the holder element in such a manner that in the non-actuated position of the brake assembly the holder element can only rotate through a limited angle.
A drum for a dual source CT machine, the drum being mounted to an outer rim of a bearing, an inner rim of the bearing being mounted to a gantry of the dual source CT machine, and the drum comprising: a ring-shaped front drum, wherein the ring-shaped front drum has a first side surface and a second side surface opposite to each other, a first system mounting area configured for a first X-ray tube system to be mounted and a second system mounting area configured for a second X-ray tube system to be mounted are arranged on the first side surface of the front drum, and a front flange extending in an axial direction from an inner ring edge of the front drum is formed on the second side surface of the front drum; and a ring-shaped rear drum, wherein the rear drum has a first side surface and a second side surface opposite to each other, a first component mounting area configured for a first set of components matching the first X-ray tube system to be mounted and a second component mounting area configured for a second set of components matching the second X-ray tube system to be mounted are arranged on the first side surface of the rear drum, and a rear flange extending in the axial direction from an inner ring edge of the rear drum is formed on the second side surface of the rear drum; and the front drum and the rear drum are arranged coaxially, the front flange and the rear flange face each other, the front drum is connected to the bearing through the front flange, and the rear drum is connected to the bearing through the rear flange. a ring-shaped front drum, wherein the ring-shaped front drum has a first side surface and a second side surface opposite to each other, a first system mounting area configured for a first X-ray tube system to be mounted and a second system mounting area configured for a second X-ray tube system to be mounted are arranged on the first side surface of the front drum, and a front flange extending in an axial direction from an inner ring edge of the front drum is formed on the second side surface of the front drum; and a ring-shaped rear drum, wherein the rear drum has a first side surface and a second side surface opposite to each other, a first component mounting area configured for a first set of components matching the first X-ray tube system to be mounted and a second component mounting area configured for a second set of components matching the second X-ray tube system to be mounted are arranged on the first side surface of the rear drum, and a rear flange extending in the axial direction from an inner ring edge of the rear drum is formed on the second side surface of the rear drum; and the front drum and the rear drum are arranged coaxially, the front flange and the rear flange face each other, the front drum is connected to the bearing through the front flange, and the rear drum is connected to the bearing through the rear flange.
An electric amplifier circuit for amplifying an output signal of a microphone, comprising: - an input terminal to apply the output signal of the microphone, - an output terminal to output an output signal of the amplifier circuit, - an amplifier component having a first input terminal (E110a) for applying a first input signal, a second input terminal (E110b) for applying a second input signal and an output terminal for outputting an output signal of the amplifier component, wherein the first input terminal (E110a) of the amplifier component is coupled to the input terminal of the amplifier circuit, and the output terminal of the amplifier component is coupled to the output terminal of the amplifier circuit, - a feedback path being coupled between the output terminal of the amplifier component and the second input terminal (E110b) of the amplifier component, - a variable filter circuit (1000, 2000) having a variable corner frequency, - a storage circuit for storing a value to set a gain of the amplifier component, - wherein the variable filter circuit (1000, 2000) is arranged in the feedback path, - wherein the variable filter circuit (1000, 2000) comprises an electric component (120, 130, 140) being configured for setting the corner frequency of the variable filter circuit (1000, 2000) in dependence on the value stored in the storage circuit. - an input terminal to apply the output signal of the microphone, - an output terminal to output an output signal of the amplifier circuit, - an amplifier component having a first input terminal (E110a) for applying a first input signal, a second input terminal (E110b) for applying a second input signal and an output terminal for outputting an output signal of the amplifier component, wherein the first input terminal (E110a) of the amplifier component is coupled to the input terminal of the amplifier circuit, and the output terminal of the amplifier component is coupled to the output terminal of the amplifier circuit, - a feedback path being coupled between the output terminal of the amplifier component and the second input terminal (E110b) of the amplifier component, - a variable filter circuit (1000, 2000) having a variable corner frequency, - a storage circuit for storing a value to set a gain of the amplifier component, - wherein the variable filter circuit (1000, 2000) is arranged in the feedback path, - wherein the variable filter circuit (1000, 2000) comprises an electric component (120, 130, 140) being configured for setting the corner frequency of the variable filter circuit (1000, 2000) in dependence on the value stored in the storage circuit.