mhurhangee/patent-ind-claim-en huggingface dataset:
A dental attachment assembly , comprising: a cap for securing with a dental appliance, the cap having an open end defining an inner cavity; an abutment configured with an upper opening with a socket ; and a retention member configured with a threaded portion for threaded attachment with the cap at a first end and a spherical head to frictionally detachably attach with the socket of the abutment at a second end to form a frictional fit between the head and the socket and securely retain the dental appliance and abutment ; wherein a curved surface of the spherical head which engages an opposing surface of the socket has a series of flattened portions . a cap for securing with a dental appliance, the cap having an open end defining an inner cavity; an abutment configured with an upper opening with a socket ; and a retention member configured with a threaded portion for threaded attachment with the cap at a first end and a spherical head to frictionally detachably attach with the socket of the abutment at a second end to form a frictional fit between the head and the socket and securely retain the dental appliance and abutment ; wherein a curved surface of the spherical head which engages an opposing surface of the socket has a series of flattened portions .
A computer-implemented method of automatically identifying nearby devices, comprising: under control of one or more computing systems configured with executable instructions, capturing at least one image using at least one capture element of a client device ; analyzing the at least one image to determine a presence of at least one computing device and a relative location including a direction and distance of the at least one computing device with respect to the client device; sending a request to the at least one computing device; receiving a response from at least one responding computing device, the response including identifying information for an associated computing device; and providing for display a user interface including a graphical element for the at least one responding computing device, the graphical element positioned on the user interface to correspond to the determined relative location of the associated computing device, whereby a user of the client device is able to view identity information for the at least one responding computing device, or a user of the at least one responding computing device, without manual intervention; wherein the method further comprises determining a communication mechanism for communicating with the at least one responding computing device using the at least one captured image. under control of one or more computing systems configured with executable instructions, capturing at least one image using at least one capture element of a client device ; analyzing the at least one image to determine a presence of at least one computing device and a relative location including a direction and distance of the at least one computing device with respect to the client device; sending a request to the at least one computing device; receiving a response from at least one responding computing device, the response including identifying information for an associated computing device; and providing for display a user interface including a graphical element for the at least one responding computing device, the graphical element positioned on the user interface to correspond to the determined relative location of the associated computing device, whereby a user of the client device is able to view identity information for the at least one responding computing device, or a user of the at least one responding computing device, without manual intervention; wherein the method further comprises determining a communication mechanism for communicating with the at least one responding computing device using the at least one captured image.
Forklift for the handling of pneumatic tyres provided with transponder ; the forklift comprises: a gripping device that makes it possible to pick up a stack of pneumatic tyres each having a central cavity and a transponder ; the forklift characterized in that it comprises a reader device , which is provided with an antenna and is suitable to communicate with the transponders of the pneumatic tyres ; and in that it comprises a displacement unit , which supports at least the antenna of the reader device and is suitable for moving the antenna between a waiting position wherein the antenna is arranged at a certain distance from the stack of pneumatic tyres carried by the gripping device and a working position wherein the antenna is arranged in close proximity to the stack of pneumatic tyres carried by the gripping device . a gripping device that makes it possible to pick up a stack of pneumatic tyres each having a central cavity and a transponder ; the forklift characterized in that it comprises a reader device , which is provided with an antenna and is suitable to communicate with the transponders of the pneumatic tyres ; and in that it comprises a displacement unit , which supports at least the antenna of the reader device and is suitable for moving the antenna between a waiting position wherein the antenna is arranged at a certain distance from the stack of pneumatic tyres carried by the gripping device and a working position wherein the antenna is arranged in close proximity to the stack of pneumatic tyres carried by the gripping device .
A microprocessor implemented method for speculatively maintaining a guest return address stack in an out-of-order microprocessor pipeline, said method comprising: mapping a plurality of instructions in a guest address space into a corresponding plurality of instructions in a native address space; and for each function call instruction in said native address space fetched during execution, performing: pushing a current entry into a guest return address stack, GRAS, responsive to a function call, wherein said GRAS is maintained at the fetch stage of the pipeline, and wherein said current entry comprises information regarding both a guest target return address and a corresponding native target return address associated with the function call; popping said current entry from said GRAS in response to processing a return instruction; sending said current entry through the pipeline along with said return instruction to be compared against an entry popped from a return address stack, RAS, maintained at a later stage of the pipeline with respect to said fetch stage of the pipeline; and fetching instructions from said native target return address in said current entry after said popping. mapping a plurality of instructions in a guest address space into a corresponding plurality of instructions in a native address space; and for each function call instruction in said native address space fetched during execution, performing: pushing a current entry into a guest return address stack, GRAS, responsive to a function call, wherein said GRAS is maintained at the fetch stage of the pipeline, and wherein said current entry comprises information regarding both a guest target return address and a corresponding native target return address associated with the function call; popping said current entry from said GRAS in response to processing a return instruction; sending said current entry through the pipeline along with said return instruction to be compared against an entry popped from a return address stack, RAS, maintained at a later stage of the pipeline with respect to said fetch stage of the pipeline; and fetching instructions from said native target return address in said current entry after said popping. pushing a current entry into a guest return address stack, GRAS, responsive to a function call, wherein said GRAS is maintained at the fetch stage of the pipeline, and wherein said current entry comprises information regarding both a guest target return address and a corresponding native target return address associated with the function call; popping said current entry from said GRAS in response to processing a return instruction; sending said current entry through the pipeline along with said return instruction to be compared against an entry popped from a return address stack, RAS, maintained at a later stage of the pipeline with respect to said fetch stage of the pipeline; and fetching instructions from said native target return address in said current entry after said popping.
Safety module (M) for a door-lock device, intended to block a door of a household appliance, comprising a first terminal , a second terminal , an actuator arranged between said first terminal and said second terminal , a closing switch , provided with contacts , associated with said door of said household appliance and arranged on a closing circuit branch , and a blocking switch , provided with contacts , functionally associated with said actuator and arranged on a blocking circuit branch , characterised in that said closing circuit branch and said blocking circuit branch are parallel connected to each other, a multiple switch , in its turn comprising a first elastic lamina , which is one of the contacts of said closing switch , a second elastic lamina , which constitutes one of the contacts of said blocking switch , and a common electric support , which said first and said second elastic lamina are coupled to, said multiple switch being made of a single piece, and wherein said closing circuit branch and said blocking circuit branch are series connected to said actuator . a first terminal , a second terminal , an actuator arranged between said first terminal and said second terminal , a closing switch , provided with contacts , associated with said door of said household appliance and arranged on a closing circuit branch , and a blocking switch , provided with contacts , functionally associated with said actuator and arranged on a blocking circuit branch , characterised in that said closing circuit branch and said blocking circuit branch are parallel connected to each other, a multiple switch , in its turn comprising a first elastic lamina , which is one of the contacts of said closing switch , a second elastic lamina , which constitutes one of the contacts of said blocking switch , and a common electric support , which said first and said second elastic lamina are coupled to, a first elastic lamina , which is one of the contacts of said closing switch , a second elastic lamina , which constitutes one of the contacts of said blocking switch , and a common electric support , which said first and said second elastic lamina are coupled to, said multiple switch being made of a single piece, and wherein said closing circuit branch and said blocking circuit branch are series connected to said actuator .
A dunnage conversion machine for converting a sheet stock material into a relatively lower density dunnage product, comprising: a conversion assembly (204, 206; 304, 306) configured to advance a sheet stock material therethrough along a path from an upstream end toward a downstream end and to randomly crumple at least a portion of the sheet stock material; and a cutting assembly downstream of the conversion assembly that includes a stationary cutting blade on one side of the path of the sheet stock material and a movable cutting blade that is movable from a conversion position removed from the path of the sheet stock material opposite the stationary cutting blade , across the path to a cut position adjacent the stationary cutting blade ; where the cutting assembly further includes an upstream flattening plow coupled to an upstream side of the movable cutting blade for movement therewith and a downstream flattening plow coupled to a downstream side of the movable cutting blade for movement therewith. a conversion assembly (204, 206; 304, 306) configured to advance a sheet stock material therethrough along a path from an upstream end toward a downstream end and to randomly crumple at least a portion of the sheet stock material; and a cutting assembly downstream of the conversion assembly that includes a stationary cutting blade on one side of the path of the sheet stock material and a movable cutting blade that is movable from a conversion position removed from the path of the sheet stock material opposite the stationary cutting blade , across the path to a cut position adjacent the stationary cutting blade ; where the cutting assembly further includes an upstream flattening plow coupled to an upstream side of the movable cutting blade for movement therewith and a downstream flattening plow coupled to a downstream side of the movable cutting blade for movement therewith.
An electrode comprising an active layer comprising: (i) an electrically conductive material, (ii) an electrode active material, and (iii) a binder, characterised in that the binder comprises a random copolymer comprising a first block and a second block, wherein the first block comprises a polymer containing functional groups substitutable with lithium ions selected from polyacrylic acid, poly(vinyl sulfonic acid), poly(styrene sulfonate) and poly(vinyl phosphonic acid) and the second block comprises a polymer selected from polyethylene oxide, polypropylene oxide and polyperfluoropropylene oxide. (i) an electrically conductive material, (ii) an electrode active material, and (iii) a binder,
Dosing apparatus for dosing products in granular and/or micro granular and/or flake form and/or in powder, in particular for dosing plastics and/or additives for plastics, in a containing element included in a plant for treating and/or transforming and/or conveying plastics and/or additives for plastics, wherein the dosing apparatus comprises: - a hopper for containing said products; - a dosing conduit for exiting said products from said hopper ; - a shutter element , positioned at a dosing opening of said dosing conduit , which shutter element is movable between an open position (A) and a closed position (C) of said dosing opening so as to enable said products to exit or prevent said products from exiting said hopper ; and - a discharge conduit for emptying said hopper of said products; wherein said discharge conduit is positioned downstream, with respect to an advancement direction of said products in said dosing apparatus , of said shutter element , and wherein a conveying element is provided, interposed between said shutter element and said discharge conduit , wherein said conveying element is movable between a supplying position (F), in which said conveying element conveys said products from said dosing conduit towards said containing element , and an emptying position (D), in which said conveying element conveys said products from said dosing conduit towards said discharge conduit , and wherein said conveying element is rotatably supported by a pin connected to a supporting body of said dosing apparatus , characterised in that said pin is positioned outside said dosing opening . - a hopper for containing said products; - a dosing conduit for exiting said products from said hopper ; - a shutter element , positioned at a dosing opening of said dosing conduit , which shutter element is movable between an open position (A) and a closed position (C) of said dosing opening so as to enable said products to exit or prevent said products from exiting said hopper ; and - a discharge conduit for emptying said hopper of said products;
Endframe of a gangway, the endframe being suitable to be connected to an endframe of a different gangway or to a car of a multi-car vehicle, the endframe comprising • a beam , • a connector attached to the beam , the connector being suitable to connect the beam to a beam of an endframe of a different gangway or suitable to connect the beam to a car of a multi-car vehicle or suitable to connect the beam to a connector attached to a beam of an endframe of a different gangway or suitable to connect the beam to a connector attached to a car of a multi-car vehicle, characterized by • a contact surface formed by a part of the beam and • a groove arranged in the beam , whereby the groove has an opening and walls that delimit the groove , whereby one of the walls delimiting the groove is a backward facing wall , whereby the backward facing wall faces away from the contact surface , whereby the connector has a protrusion that is arranged inside the groove , whereby the connector has a protruding pin, a protruding bolt or a protruding hook and the contact surface is arranged in a plane (E), whereby all remaining parts of the connector apart from the protruding pin, the protruding bolt or the protruding hook are arranged on one side of this plane (E), whereby the backward facing wall is arranged in a plane (E3), whereby the angle (ALPHA) between the plane (E), in which the contact surface is arranged, and the plane (E3), in which the backward facing wall is arranged is >0° and <90°. • a beam , • a connector attached to the beam , the connector being suitable to connect the beam to a beam of an endframe of a different gangway or suitable to connect the beam to a car of a multi-car vehicle or suitable to connect the beam to a connector attached to a beam of an endframe of a different gangway or suitable to connect the beam to a connector attached to a car of a multi-car vehicle, characterized by • a contact surface formed by a part of the beam and • a groove arranged in the beam , whereby the groove has an opening and walls that delimit the groove , whereby one of the walls delimiting the groove is a backward facing wall , whereby the backward facing wall faces away from the contact surface ,
A method for separating incinerator combined ash and preparing clean aggregate, comprising: combining the ash with a liquid, screening the ash using a 2-stage screen to collect a first material of less than 100mm, sizing the first material using at least one 2-stage screen to collect that first material less than about 35mm, sizing the first material into discrete sizes, separating the first material using a first falling velocity separator operating at about 3.2 specific gravity, wherein there is a first heavy fraction and a first light fraction, characterised by separating the first light fraction using a second falling velocity separator operating at about less than about 2.2 specific gravity, wherein there is a second heavy fraction has a specific gravity greater than about 2.2 specific gravity and a second light fraction, magnetically separating the second heavy fraction to recover ferromagnetic metals to prepare a third heavy fraction, magnetically separating the third light fraction to recover ferromagnetic metals, using a first eddy current having a frequency greater than 800 hertz to the third heavy fraction to remove aluminum, brass and copper, using a second eddy current having a frequency greater than 1 kilohertz to the third heavy fraction to further remove aluminum, brass and copper, using on the third heavy fraction a sensor sorter and an optical sorter capable of sorting glass based on the transparency or lack of transparency, wherein the glass is recovered from the third fraction and the third fraction is essentially the metal-free and glass-free aggregate. combining the ash with a liquid, screening the ash using a 2-stage screen to collect a first material of less than 100mm, sizing the first material using at least one 2-stage screen to collect that first material less than about 35mm, sizing the first material into discrete sizes, separating the first material using a first falling velocity separator operating at about 3.2 specific gravity, wherein there is a first heavy fraction and a first light fraction, characterised by separating the first light fraction using a second falling velocity separator operating at about less than about 2.2 specific gravity, wherein there is a second heavy fraction has a specific gravity greater than about 2.2 specific gravity and a second light fraction, magnetically separating the second heavy fraction to recover ferromagnetic metals to prepare a third heavy fraction, magnetically separating the third light fraction to recover ferromagnetic metals, using a first eddy current having a frequency greater than 800 hertz to the third heavy fraction to remove aluminum, brass and copper, using a second eddy current having a frequency greater than 1 kilohertz to the third heavy fraction to further remove aluminum, brass and copper, using on the third heavy fraction a sensor sorter and an optical sorter capable of sorting glass based on the transparency or lack of transparency, wherein the glass is recovered from the third fraction and the third fraction is essentially the metal-free and glass-free aggregate.
A delivery unit of a drug delivery device , the delivery unit comprising a subcutaneous delivery mechanism having a subcutaneous delivery member , a subcutaneous delivery member actuation mechanism being operable to move the subcutaneous delivery member between a retracted position and an extended position and a support member supporting the subcutaneous delivery member actuation mechanism , whereby said actuation mechanism comprises a rotary member having an engagement member rotatable relative the support member , and an actuator comprising a pivot portion and an engagement portion , the actuator being pivotally connected to the support member via the pivot portion , wherein the actuation mechanism is actuated by rotation of the rotary member , wherein the engagement member and engagement portion are engageable such that rotation of the rotary member causes an actuation portion of the actuator to pivot between first and second positions and to thereby move the subcutaneous delivery member between the corresponding retracted and extended positions, characterized in that the delivery unit further comprises a pump engine configured to pump a fluid to the subcutaneous delivery member by means of a rotary action, the pump engine being coupled to the rotary member .
An assembly of a plurality of holders (2-6), each holder (2-6; 60-63) being designed for an electrically contactable or for a mechanical component (30-34), comprising a holder plate having a surface in a first plane and a connection surface for fastening the component (30-34) to the holder plate , wherein the connection surface for the component (30-34) is arranged in a second plane, wherein the connection surface in the second plane is disposed at an angle to the surface in the first plane, wherein at least one contact (18.1, 18.2, 18.3) is formed on the connection surface as part of an electrically conductive coating, wherein the angle between the surface and the connection surface is between 45° and 135°, wherein the holder plate has a contact surface arranged at an angle to the surface , wherein the contact surface is coated in an electrically conductive manner and is electrically connected to the contact (18.1, 18.2) of the connection surface , wherein the individual holders (2-6) are spaced apart from each other on a retaining part and are connected to the retaining part at a connection point (8-12) via their holder plate , characterised in that the holder plate has a coated side surface at an angle to the surface and in that the coating of the side surface electrically connects the contact surface to the connection surface , wherein the retaining part is coated with perforated conductor tracks , wherein the conductor tracks of the retaining part are connected to the conductor tracks of the individual holders (2-6) such that the holders (2-6) are connected in series or in parallel with the components (30-34) mounted thereon in order to test the functionality of the components (30-34).