mhurhangee/ep-ind-claims huggingface dataset:
A saw blade for use with a power tool, the saw blade comprising: a body; an attachment portion coupled to the body and configured to couple to the power tool; and a cutting portion formed on the body, the cutting portion including consecutive first, second, and third cutting teeth, the first, second, and third cutting teeth each including a rake surface (110a, 110b), a relief surface (118a, 118b), and a tip (106a, 106b) positioned between the rake and relief surfaces (110a, 110b, 118a, 118b), the first cutting tooth including a protrusion extending from an end of the relief surface (118a, 118b) of the first cutting tooth, the second cutting tooth does not include a protrusion on the relief surface (118a, 118b) of the second cutting tooth, the cutting portion including a first gullet positioned between the first cutting tooth and the second cutting tooth, and the cutting portion including a second gullet positioned between the second cutting tooth and the third cutting tooth. a body; an attachment portion coupled to the body and configured to couple to the power tool; and a cutting portion formed on the body, the cutting portion including consecutive first, second, and third cutting teeth, the first, second, and third cutting teeth each including a rake surface (110a, 110b), a relief surface (118a, 118b), and a tip (106a, 106b) positioned between the rake and relief surfaces (110a, 110b, 118a, 118b), the first cutting tooth including a protrusion extending from an end of the relief surface (118a, 118b) of the first cutting tooth, the second cutting tooth does not include a protrusion on the relief surface (118a, 118b) of the second cutting tooth, the cutting portion including a first gullet positioned between the first cutting tooth and the second cutting tooth, and the cutting portion including a second gullet positioned between the second cutting tooth and the third cutting tooth.
A User Equipment, UE, comprising: a transmission and reception unit; and a controller, characterized in that during a first PDU session establishment procedure, _the transmission and reception unit is configured to: transmit, over 3GPP access, a PDU Session Establishment Request message, together with information indicating that establishment of Multi-Access PDU Session is requested; and receive, over the 3GPP access, a first PDU Session Establishment Accept message including routing rules for Multi-Access PDU Session and identification information of Multi-Access PDU Session to be established, the controller is configured to consider that connection of Multi-Access PDU Session is established on the 3GPP access, based on receiving the first PDU Session Establishment Accept message, during a second PDU session establishment procedure, _the transmission and reception unit is further configured to receive, over non-3GPP access, a second PDU Session Establishment Accept message including the identification information of the Multi-Access PDU Session, the controller is configured to consider that the connection of Multi-Access PDU Session has been established over both 3GPP access and non-3GPP access, based on receiving the second PDU Session Establishment Accept message, and the connection of Multi-Access PDU Session has been established between the UE and a core network. a transmission and reception unit; and a controller, during a first PDU session establishment procedure, _the transmission and reception unit is configured to: transmit, over 3GPP access, a PDU Session Establishment Request message, together with information indicating that establishment of Multi-Access PDU Session is requested; and receive, over the 3GPP access, a first PDU Session Establishment Accept message including routing rules for Multi-Access PDU Session and identification information of Multi-Access PDU Session to be established, transmit, over 3GPP access, a PDU Session Establishment Request message, together with information indicating that establishment of Multi-Access PDU Session is requested; and receive, over the 3GPP access, a first PDU Session Establishment Accept message including routing rules for Multi-Access PDU Session and identification information of Multi-Access PDU Session to be established, the controller is configured to consider that connection of Multi-Access PDU Session is established on the 3GPP access, based on receiving the first PDU Session Establishment Accept message, during a second PDU session establishment procedure, _the transmission and reception unit is further configured to receive, over non-3GPP access, a second PDU Session Establishment Accept message including the identification information of the Multi-Access PDU Session, the controller is configured to consider that the connection of Multi-Access PDU Session has been established over both 3GPP access and non-3GPP access, based on receiving the second PDU Session Establishment Accept message, and the connection of Multi-Access PDU Session has been established between the UE and a core network.
Machine for producing a multilayer fibrous web, in particular a board web having a grammage of more than 40 g/m 2, having a forming area for forming the multilayer fibrous web, comprising at least two layer forming areas (I, II, III) for forming the fibrous web layers, and having a pressing area following the forming area, characterized in that a dewatering unit having a pressing zone, through which the fibrous web is led lying between a circulating, permeable belt and a circulating, permeable supporting belt, is provided for the dewatering, the pressing zone being formed in such a way that a fluid can flow through the permeable belt, the fibrous web and the permeable supporting belt, at least over part of the length of the pressing zone, the pressing zone being formed by a permeable pressing element and a permeable mating element, and in that the dewatering unit is arranged in the pressing area such that the fibrous web is picked up from a preceding surface by the permeable belt or by the permeable supporting belt and is led through the pressing zone.
A working vehicle comprising a travel base, a body frame mounted on the travel base, working equipment attached to the body frame, an operator's cab arranged on the body frame, a step (7;11) which is disposed below a door of the operator's cab, is extendable outward from the body frame when in use and is storable toward the body frame when not in use, and a shaft (8;12) supporting the step pivotally between a usable position and a stored position, characterized in that: the working vehicle is provided with a storage compartment arranged inside the body frame for stering the step (7; 11) therein; and the shaft (8;12) is arranged in the storage compartment, wherein the step has cut-off portions which are in engagement with the body frame when the step is in the usable position, and wherein the working vehicle is provided with a step-holding mechanism (10c,12,4a2) for preventing the step from falling in an outward direction relative to the body frame when the step is in storage in the storage compartment. the working vehicle is provided with a storage compartment arranged inside the body frame for stering the step (7; 11) therein; and the shaft (8;12) is arranged in the storage compartment, wherein the step has cut-off portions which are in engagement with the body frame when the step is in the usable position, and wherein the working vehicle is provided with a step-holding mechanism (10c,12,4a2) for preventing the step from falling in an outward direction relative to the body frame when the step is in storage in the storage compartment.
A method of converting a CMYK printer to print with a non-standard toner, comprising the steps: providing (705; 805) a CMYK toner printer; wherein said CMYK toner printer has four toner printing cartridges, wherein three of the four toner printing cartridges are color printing cartridges comprising a cyan toner printing cartridge, a magenta toner printing cartridge, and a yellow toner printing cartridge; removing (710; 810) one or more of said color toner printing cartridges from said toner printer, such that there are one or more empty toner printing cartridge positions; providing (715; 815) one or more non-standard toner printing cartridges; installing (720; 820) said one or more non-standard toner printing cartridges into said one or more empty toner printing cartridge positions; remapping (725; 825) said printing cartridges with a raster image processor software for printing cartridge remapping; and adjusting one or more printer settings so that said printer prints using said one or more non-standard toner filled cartridges; wherein said one or more printer settings is set to print at 100% K for printing in black. providing (705; 805) a CMYK toner printer; wherein said CMYK toner printer has four toner printing cartridges, wherein three of the four toner printing cartridges are color printing cartridges comprising a cyan toner printing cartridge, a magenta toner printing cartridge, and a yellow toner printing cartridge; removing (710; 810) one or more of said color toner printing cartridges from said toner printer, such that there are one or more empty toner printing cartridge positions; providing (715; 815) one or more non-standard toner printing cartridges; installing (720; 820) said one or more non-standard toner printing cartridges into said one or more empty toner printing cartridge positions; remapping (725; 825) said printing cartridges with a raster image processor software for printing cartridge remapping; and adjusting one or more printer settings so that said printer prints using said one or more non-standard toner filled cartridges; wherein said one or more printer settings is set to print at 100% K for printing in black.
A manufacturing method for a glass film, comprising, in this order: a cleaving step of dividing a glass film having a band shape into a product glass portion (Ga) and an unnecessary glass portion (Gb) by successively cleaving, while delivering the glass film in a longitudinal direction thereof, the glass film along a preset cleaving line extending in the longitudinal direction using a thermal stress that is generated along with localized heating performed along the preset cleaving line and cooling performed after the localized heating; and a collecting step of sequentially breaking or shattering the unnecessary glass portion (Gb), which is continuously delivered in the longitudinal direction, and collecting the broken or shattered unnecessary glass portion (Gb), characterized in that the cleaving step is followed by vibration regulating processing of regulating vibrations of the unnecessary glass portion (Gb) in a thickness direction thereof, the vibration regulating processing being executed in at least one location in the longitudinal direction of the unnecessary glass portion (Gb) together with the collecting step executed on a downstream side of the at least one location of the vibration regulating processing. a cleaving step of dividing a glass film having a band shape into a product glass portion (Ga) and an unnecessary glass portion (Gb) by successively cleaving, while delivering the glass film in a longitudinal direction thereof, the glass film along a preset cleaving line extending in the longitudinal direction using a thermal stress that is generated along with localized heating performed along the preset cleaving line and cooling performed after the localized heating; and a collecting step of sequentially breaking or shattering the unnecessary glass portion (Gb), which is continuously delivered in the longitudinal direction, and collecting the broken or shattered unnecessary glass portion (Gb), characterized in that the cleaving step is followed by vibration regulating processing of regulating vibrations of the unnecessary glass portion (Gb) in a thickness direction thereof, the vibration regulating processing being executed in at least one location in the longitudinal direction of the unnecessary glass portion (Gb) together with the collecting step executed on a downstream side of the at least one location of the vibration regulating processing.
Method of applying portions (3, 4, 5, 6) of a backlining material (23, 33, 38, 43) to the spine of a book block, in which 1.1 the book block is transported in a book production line in a conveying direction and the spine of the book block is provided with an adhesive and 1.2 portions (3, 4, 5, 6) of the backlining material (23, 33, 38, 43) are applied one after the other to the spine of the book block provided with the adhesive by means of at least one conveying means, characterised in that 1.3 the spine of the book block is first provided with the adhesive over its entire length in a single application process and 1.4 then a first portion or a first portion and at least one further portion of the backlining material (23, 33) is/are applied by a first conveying means and subsequently at least one second portion or a second portion and at least one further portion of the backlining material (43, 38) is/are applied by a second conveying means to the spine of the book block provided with the adhesive in an overlapping manner. 1.1 the book block is transported in a book production line in a conveying direction and the spine of the book block is provided with an adhesive and 1.2 portions (3, 4, 5, 6) of the backlining material (23, 33, 38, 43) are applied one after the other to the spine of the book block provided with the adhesive by means of at least one conveying means, characterised in that 1.3 the spine of the book block is first provided with the adhesive over its entire length in a single application process and 1.4 then a first portion or a first portion and at least one further portion of the backlining material (23, 33) is/are applied by a first conveying means and subsequently at least one second portion or a second portion and at least one further portion of the backlining material (43, 38) is/are applied by a second conveying means to the spine of the book block provided with the adhesive in an overlapping manner.
A self-propelled foundry vehicle for making castings of molten metal from a ladle, which, during the loading step, rests on a lower carriage, placed in front of said vehicle and featuring a vertical translatory movement, said ladle being rotationally coupled to said lower carriage by means of a front hinge placed near the spout of said ladle, the latter being also functionally connected to appropriate transmission of motion means, activated by said vehicle and hinged at the rear to said ladle, lifting said rear hinge brings said ladle to a work position by making it rotate around said front hinge, said transmission-of-motion means comprising a rod whose lower end is rotationally connected to said ladle via said rear hinge and whose upper end is functionally connected to said ladle via said rear hinge and whose upper end is functionally connected to an upper carriage vertically slidable with respect to said vehicle, characterized in that it comprises a scale on the load plate of which an arm is mounted, which supports said ladle on the front via said front hinge.
A vertical ferroelectric field effect transistor construction for fabricating on a base substrate to be provided, the construction comprising: an isolating core; a transition metal dichalcogenide or indium disulphide or indium diselenide material encircling the isolating core and having a lateral wall thickness of 1 monolayer to 7 monolayers; a ferroelectric gate dielectric material encircling the transition metal dichalcogenide or indium disulphide or indium diselenide material; conductive gate material encircling the ferroelectric gate dielectric material, the transition metal dichalcogenide or indium disulphide or indium diselenide material extending vertically below and vertically above the conductive gate material; and a conductive contact (28, 30) directly against a lateral outer sidewall (27, 29) of the transition metal dichalcogenide or indium disulphide or indium diselenide material that is a) vertically below the conductive gate material, or b) vertically above the conductive gate material; wherein 'vertically' is with reference to a vertical direction relative to the base substrate to be provided. an isolating core; a transition metal dichalcogenide or indium disulphide or indium diselenide material encircling the isolating core and having a lateral wall thickness of 1 monolayer to 7 monolayers; a ferroelectric gate dielectric material encircling the transition metal dichalcogenide or indium disulphide or indium diselenide material; conductive gate material encircling the ferroelectric gate dielectric material, the transition metal dichalcogenide or indium disulphide or indium diselenide material extending vertically below and vertically above the conductive gate material; and a conductive contact (28, 30) directly against a lateral outer sidewall (27, 29) of the transition metal dichalcogenide or indium disulphide or indium diselenide material that is a) vertically below the conductive gate material, or b) vertically above the conductive gate material; wherein 'vertically' is with reference to a vertical direction relative to the base substrate to be provided.
Rear tiller for a tracked piste grooming vehicle for snow piste shaping and grooming, having a preparation housing that is open towards the ground and having a driven working shaft arrangement, which is rotatably mounted in the preparation housing, characterized in that the preparation housing has a stationary housing envelope portion (2, 2a) and a movable housing envelope portion (2'; 2'a), which are mounted so as to be movable in a fan-like manner relative to one another in the circumferential direction - relative to a rotational axis of the working shaft arrangement, and in that the movable housing envelope portion (2'a) has a wall that is arcuate in cross-section and that overlaps the stationary housing envelope portion on the inside in the circumferential direction, at least to a large extent, and fits to an interior wall of the stationary housing envelope portion.
A method for producing a lithium ion secondary battery in which a positive electrode, a heat-resistant insulating layer provided separator having a heat-resistant insulating layer formed of oxide particles on one surface of a resin porous substrate, and a negative electrode are laminated on one another, and a nonaqueous electrolyte is impregnated in the heat-resistant insulating layer provided separator, comprising: drying the heat-resistant insulating layer provided separator before laminating so that the water content in the heat-resistant insulating layer provided separator remains in a predetermined range, the method being characterized in that, in the drying step, the heat-resistant insulating layer provided separator is dried such that the shape of the heat-resistant insulating layer provided separator after the drying step defined by a length ratio Y between the length of the resin porous substrate and the length of the heat-resistant insulating layer satisfies the equation: 1 − 4 πX ≦ Y ≦ 1 + 4 πX wherein D represents the thickness of the separator, L represents the length of the separator, and X represents a ratio (D/L) of the thickness D to the length L of the separator. drying the heat-resistant insulating layer provided separator before laminating so that the water content in the heat-resistant insulating layer provided separator remains in a predetermined range, the method being characterized in that, in the drying step, the heat-resistant insulating layer provided separator is dried such that the shape of the heat-resistant insulating layer provided separator after the drying step defined by a length ratio Y between the length of the resin porous substrate and the length of the heat-resistant insulating layer satisfies the equation: 1 − 4 πX ≦ Y ≦ 1 + 4 πX wherein D represents the thickness of the separator, L represents the length of the separator, and X represents a ratio (D/L) of the thickness D to the length L of the separator.
A curable fluoroelastomer composition comprising: A) a curable fluoroelastomer which is selected from the group consisting of copolymers of: i) vinylidene fluoride with hexafluoropropylene and, optionally, tetrafluoroethylene; ii) vinylidene fluoride with a perfluoro(alkyl vinyl ether), 2-hydropentafluoropropylene and, optionally, tetrafluoroethylene; iii) tetrafluoroethylene with propylene and 3,3,3-trifluoropropene; iv) tetrafluoroethylene, perfluoro(methyl vinyl ether) and hexafluoro-2-(pentafluorophenoxy)-1-(trifluorovinyloxy) propane, and v) ethylene with tetrafluoroethylene, perfluoro(methyl vinyl ether) and 3,3,3-trifluoropropylene; or which is a curable fluoroelastomer containing Br or I cure sites along the polymer chain, at chain ends or in both locations; B) a curative; and C) an acid acceptor selected from the group consisting of a hydrous bismuth oxide nitrate compound and bismuth oxide. A) a curable fluoroelastomer which is selected from the group consisting of copolymers of: i) vinylidene fluoride with hexafluoropropylene and, optionally, tetrafluoroethylene; ii) vinylidene fluoride with a perfluoro(alkyl vinyl ether), 2-hydropentafluoropropylene and, optionally, tetrafluoroethylene; iii) tetrafluoroethylene with propylene and 3,3,3-trifluoropropene; iv) tetrafluoroethylene, perfluoro(methyl vinyl ether) and hexafluoro-2-(pentafluorophenoxy)-1-(trifluorovinyloxy) propane, and v) ethylene with tetrafluoroethylene, perfluoro(methyl vinyl ether) and 3,3,3-trifluoropropylene; or which is a curable fluoroelastomer containing Br or I cure sites along the polymer chain, at chain ends or in both locations; i) vinylidene fluoride with hexafluoropropylene and, optionally, tetrafluoroethylene; ii) vinylidene fluoride with a perfluoro(alkyl vinyl ether), 2-hydropentafluoropropylene and, optionally, tetrafluoroethylene; iii) tetrafluoroethylene with propylene and 3,3,3-trifluoropropene; iv) tetrafluoroethylene, perfluoro(methyl vinyl ether) and hexafluoro-2-(pentafluorophenoxy)-1-(trifluorovinyloxy) propane, and v) ethylene with tetrafluoroethylene, perfluoro(methyl vinyl ether) and 3,3,3-trifluoropropylene; or which is B) a curative; and C) an acid acceptor selected from the group consisting of a hydrous bismuth oxide nitrate compound and bismuth oxide.
The use of a powder coating composition for generating a textured/structured coating surface, consisting of a) a thermoplastic or thermosetting polymer as binder system, b) a wax having an acid number in the range from 5 to 135 mg KOH/g; c) one or more basic metal compounds from the group of metal oxides, carbonates, hydroxides, acetates, phosphates or acetylacetonates. a) a thermoplastic or thermosetting polymer as binder system, b) a wax having an acid number in the range from 5 to 135 mg KOH/g; c) one or more basic metal compounds from the group of metal oxides, carbonates, hydroxides, acetates, phosphates or acetylacetonates.
Lighting device comprising at least one lighting unit; - a heat sink, the heat sink being arranged such that heat can be dissipated from the at least one lighting unit; - a supply board which is implemented separately from the lighting unit, - the illuminant further comprising a socket thermally coupled to the heat sink, wherein the lighting unit comprises a light emitting diode disposed on a double sided circuit board the underside of which is thermally coupled to the heat sink, characterised in that the heat sink comprises cooling tabs having thermal contacts which establish a thermal connection with the socket. - a heat sink, the heat sink being arranged such that heat can be dissipated from the at least one lighting unit; - a supply board which is implemented separately from the lighting unit, - the illuminant further comprising a socket thermally coupled to the heat sink,