mhurhangee/ep-ind-claims huggingface dataset:
A method of facilitating data entry into a hand held device from two different people facing each other, said device comprising on its upper case a keyboard having a preferred keyboard reading orientation, a touchscreen located above the keyboard and capable of receiving and displaying a signature input using a stylus, and a signature key, said method comprising the steps of: A) at activation of the signature key by a first person holding the device, display data oriented in accordance to said preferred keyboard reading orientation; B) at reception of further keyboard input indicative of a positive verification of said displayed data, flip the screen content to display the data re-oriented by 180 degrees and further display a signature box to sign in; C) at further activation of the signature key after reception of a signature in the signature box by the second person, flip the screen content back to display the data and the executed signature re-oriented by 180 degrees in accordance to said preferred keyboard reading orientation. A) at activation of the signature key by a first person holding the device, display data oriented in accordance to said preferred keyboard reading orientation; B) at reception of further keyboard input indicative of a positive verification of said displayed data, flip the screen content to display the data re-oriented by 180 degrees and further display a signature box to sign in; C) at further activation of the signature key after reception of a signature in the signature box by the second person, flip the screen content back to display the data and the executed signature re-oriented by 180 degrees in accordance to said preferred keyboard reading orientation.
A construction kit comprising a floor covering and one or more modules, said floor covering being designed to be laid on the plane portion of a floor to be covered, said module(s) being designed to form a skirting turn-up, each module having a first zone (3.1) designed to be laid on said plane portion of the floor to be covered, a second zone (3.2) designed to bear against at least one vertical wall surface, and a transition zone (3.3) between said first and second zones (3.1, 3.2), characterized in that, in each module, the thickness (E.2) of said first zone (3.1) is uniform and identical to the thickness (E.1) of the floor covering while the thickness (E.3) of said second zone (3.2) is thinner than the thickness (E.2) of the first zone (3.1) so as to give flexibility capacity to said second zone, and in that said transition (3.3) between said first zone and said second zone of each module is implemented by a progressively sloping chamfer profile (3.3), disposed on the reverse face of the module, and designed to come to bear against an angle profile.
A method for monitoring an extruder which is in operation or an injection moulding machine which is in operation, wherein the method comprises the following steps: emitting a radar wave signal in the extruder or in the injection moulding machine; detecting a response signal corresponding to the emitted radar wave signal; determining a run time Δt, phase shift Δφ and/or intensity change ΔI of the radar wave signal on the basis of the detected response signal; and determining at least one operating parameter on the basis of the determined run time Δt, phase shift Δφ and/or intensity change AI of the radar wave signal, wherein the operating parameter points to a wear state of the extruder or of the injection moulding machine, a melting state and/or a material composition of a material which is received in the extruder or in the injection moulding machine and which is to be processed, wherein the melting state means the ratio of solid to liquid phase of the material which is received and is to be processed. emitting a radar wave signal in the extruder or in the injection moulding machine; detecting a response signal corresponding to the emitted radar wave signal; determining a run time Δt, phase shift Δφ and/or intensity change ΔI of the radar wave signal on the basis of the detected response signal; and determining at least one operating parameter on the basis of the determined run time Δt, phase shift Δφ and/or intensity change AI of the radar wave signal, wherein the operating parameter points to a wear state of the extruder or of the injection moulding machine, a melting state and/or a material composition of a material which is received in the extruder or in the injection moulding machine and which is to be processed, wherein the melting state means the ratio of solid to liquid phase of the material which is received and is to be processed.
Lid for a cargo carrier, in particular a rooftop cargo carrier, comprising a reinforced front portion for reducing a flexibility of said lid at least in said reinforced front portion, said reinforced front portion comprising a reinforcing structure, said reinforcing structure comprising at least two continuous elongate reinforcing sections (72, 73), each of said at least two continuous elongate reinforcing sections (72, 73) extending along or being defined in an inner surface of the lid and comprising different main extension directions, characterized in that at least two of said at least two continuous elongate reinforcing sections (72, 73) cross each other and each of said at least two continuous elongate reinforcing sections (72, 73) extends along a path (P1, P2) defined by a differentiable function.
A sweeping device made of silicone comprising: a silicone block with internal chassis; a plurality of downwardly-pointing elongated silicone bristles, and an upwardly projecting member comprising a handle-receiving member with a cavity; characterized in that said internal chassis is provided with a protective coating, applied by a process selected from the group consisting of an alodining process and an anodizing process and a primer coating, applied by a process of paint coating with a primer, thereby enabling better bonding with said silicone block. a silicone block with internal chassis; a plurality of downwardly-pointing elongated silicone bristles, and an upwardly projecting member comprising a handle-receiving member with a cavity; characterized in that said internal chassis is provided with a protective coating, applied by a process selected from the group consisting of an alodining process and an anodizing process and a primer coating, applied by a process of paint coating with a primer, thereby enabling better bonding with said silicone block.
Automatic coffee maker with a detachable water tank, wherein the automatic coffee maker has a holding/hinge contour, which interacts with a counter contour on the water tank so that the water tank can be placed on the holding/hinge coutour in an inclined removal position and can be rotated about this in an upright operating position, wherein the holding/hinge contour and the counter contour are embodied so that the water tank is reliably held on the automatic coffee maker both in its inclined removal position and also in its upright operating position and wherein the holding/hinge contour and the counter contour are embodied as a fin and as a groove in each instance, characterised in that the groove on the water tank is formed by an externally lying wall and by internally lying fins, and that the holding/hinge contour embodied as a fin on the automatic coffee maker is inclined about an angle α of 5° to 15°, in particular about 10°, compared to the perpendicular.
A coupling element (10, 100) for connecting a helical eccentric screw pump rotor to a drive shaft, comprising a drive shaft receiving section and a rotor connecting section, situated opposite therefrom, that is designed as a hollow cylinder (12, 112) for accommodating a rotor end, wherein the hollow cylinder (12, 112) has at least two inner circumferential surfaces that are complementary to the rotor and that have a radius which is fixed with respect to the cross-sectional center of the hollow cylinder (12, 112), characterized in that at least one surface section (A, C) having a larger inner radius (R1, R3) than the radius is present between the inner circumferential surfaces.
A protection method for protecting a silicide layer intended to form electrical contacts for integrated circuits, the protection method comprising the steps consisting in: a) Providing a stack comprising successively: a substrate, a silicide layer formed on the substrate, and a silicon nitride layer covering at least the silicide layer, b) Etching determined regions of the silicon nitride layer so as to expose at least areas of the silicide layer intended to form the electrical contacts, by fluorinated plasma etching, such as a CH 3 F-based plasma and c) Depositing a protective layer by a plasma treatment based on at least one gas selected among CxHy, CxOy so that to deposit a carbon-containing protective layer, SixCly and SixFy so that to deposit a silicide-containing protective layer at least over the areas of the silicide layer exposed at step b), the protection method being devoid of any step of exposition of the stack to humidity between step b) and step c), in particular to ambient air humidity. a) Providing a stack comprising successively: a substrate, a silicide layer formed on the substrate, and a silicon nitride layer covering at least the silicide layer, a substrate, a silicide layer formed on the substrate, and a silicon nitride layer covering at least the silicide layer, b) Etching determined regions of the silicon nitride layer so as to expose at least areas of the silicide layer intended to form the electrical contacts, by fluorinated plasma etching, such as a CH 3 F-based plasma and c) Depositing a protective layer by a plasma treatment based on at least one gas selected among CxHy, CxOy so that to deposit a carbon-containing protective layer, SixCly and SixFy so that to deposit a silicide-containing protective layer at least over the areas of the silicide layer exposed at step b),
A cloth spreading apparatus comprising: a pair of feeding chucks (22a, 22b) for grasping adjacent corners of a cloth (c); a moving device for moving the pair of feeding chucks (22a, 22b) between a feeding position and a delivery position of the cloth (c) to feed the cloth (c); and a spreading chuck (42a, 42b) for directly or indirectly receiving the cloth (c) from the pair of feeding chucks (22a, 22b) and spreading the cloth (c) in a direction of separating the adjacent corners from each other, characterized in that the moving device has a separate moving trajectory corresponding to each of the feeding chucks (22a, 22b) and the pair of feeding chucks (22a, 22b) are constructed so as to move independently of each other between the feeding position and the delivery position. a pair of feeding chucks (22a, 22b) for grasping adjacent corners of a cloth (c); a moving device for moving the pair of feeding chucks (22a, 22b) between a feeding position and a delivery position of the cloth (c) to feed the cloth (c); and a spreading chuck (42a, 42b) for directly or indirectly receiving the cloth (c) from the pair of feeding chucks (22a, 22b) and spreading the cloth (c) in a direction of separating the adjacent corners from each other, characterized in that the moving device has a separate moving trajectory corresponding to each of the feeding chucks (22a, 22b) and the pair of feeding chucks (22a, 22b) are constructed so as to move independently of each other between the feeding position and the delivery position.
Method for assembling a head-up display, comprising the following steps: - providing a first mirror of the head-up display; - attaching a first, elastic compression element to a first edge region of a rear side of the first mirror and attaching a second, elastic compression element to a second edge region of the rear side of the first mirror; - introducing the first mirror with the compression elements (18, 19) arranged thereon into a cover module of a housing of the head-up display and setting a preassembly position of the first mirror in the cover module, in which the compression elements (18, 19) rest against supporting surfaces (27, 28) of the cover module; - attaching a base module of the housing, which is separate from the cover module, to the cover module, wherein, as the base module is connected to the cover module, a front side of the first mirror is contacted by contact elements (23, 24) of the base module, and, as the base module continues to be joined to the cover module, the first mirror is pressed into a final assembly position, wherein, for this purpose, the compression elements (18, 119) are compressed and the first mirror is pressed against the supporting surfaces (27, 28) of the cover module. - providing a first mirror of the head-up display; - attaching a first, elastic compression element to a first edge region of a rear side of the first mirror and attaching a second, elastic compression element to a second edge region of the rear side of the first mirror; - introducing the first mirror with the compression elements (18, 19) arranged thereon into a cover module of a housing of the head-up display and setting a preassembly position of the first mirror in the cover module, in which the compression elements (18, 19) rest against supporting surfaces (27, 28) of the cover module; - attaching a base module of the housing, which is separate from the cover module, to the cover module, wherein, as the base module is connected to the cover module, a front side of the first mirror is contacted by contact elements (23, 24) of the base module, and, as the base module continues to be joined to the cover module, the first mirror is pressed into a final assembly position, wherein, for this purpose, the compression elements (18, 119) are compressed and the first mirror is pressed against the supporting surfaces (27, 28) of the cover module.
A method of wireless communication for a user equipment, UE, comprising: receiving a discovery code; generating a discovery message based on the discovery code; receiving key information associated with the discovery code; transforming the discovery message using the key information; and broadcasting the transformed discovery message, characterized in that: the transforming of the discovery message comprises scrambling the discovery message using the key information; and the scrambling of the discovery message comprises: deriving a discovery user scrambling key based on the key information; calculating a time hash value based on the discovery user scrambling key and a time of the discovery message; and performing an XOR operation on the discovery message and the time hash value to scramble the discovery message. receiving a discovery code; generating a discovery message based on the discovery code; receiving key information associated with the discovery code; transforming the discovery message using the key information; and broadcasting the transformed discovery message, characterized in that: the transforming of the discovery message comprises scrambling the discovery message using the key information; and the scrambling of the discovery message comprises: deriving a discovery user scrambling key based on the key information; calculating a time hash value based on the discovery user scrambling key and a time of the discovery message; and performing an XOR operation on the discovery message and the time hash value to scramble the discovery message. the transforming of the discovery message comprises scrambling the discovery message using the key information; and the scrambling of the discovery message comprises: deriving a discovery user scrambling key based on the key information; calculating a time hash value based on the discovery user scrambling key and a time of the discovery message; and performing an XOR operation on the discovery message and the time hash value to scramble the discovery message. deriving a discovery user scrambling key based on the key information; calculating a time hash value based on the discovery user scrambling key and a time of the discovery message; and performing an XOR operation on the discovery message and the time hash value to scramble the discovery message.
A method, comprising: mapping, at a first Universal Plug and Play, UPnP, entity in a first UPnP network by a mapping module provisioned in the first UPnP entity, a first content formatted according to UPnP device architecture, UDA, protocols to at least one stanza formatted according to Extensible Messaging and Presence Protocol, XMPP; generating, by a data generator module provisioned in the first UPnP entity, data comprising the at least one XMPP stanza and a second content formatted according to UPnP device control protocols, DCPs, wherein the second content comprises device-specific information relating to the first UPnP entity; and transmitting the data in an Extensible Markup Language, XML, stream over an XMPP network from the first UPnP entity to a second UPnP entity in a second, remote UPnP network. mapping, at a first Universal Plug and Play, UPnP, entity in a first UPnP network by a mapping module provisioned in the first UPnP entity, a first content formatted according to UPnP device architecture, UDA, protocols to at least one stanza formatted according to Extensible Messaging and Presence Protocol, XMPP; generating, by a data generator module provisioned in the first UPnP entity, data comprising the at least one XMPP stanza and a second content formatted according to UPnP device control protocols, DCPs, wherein the second content comprises device-specific information relating to the first UPnP entity; and transmitting the data in an Extensible Markup Language, XML, stream over an XMPP network from the first UPnP entity to a second UPnP entity in a second, remote UPnP network.
Clamp for fixing a hose or a tube to a motor vehicle, with a receiving element for surrounding the tube, wherein the receiving element has a first projection and a second projection, which protrude outwards from the receiving element, and a fixing element for fixing to the motor vehicle, wherein the fixing element has an engagement portion for engagement with the first projection and a latching hook for latching to the second projection, and therefore, for the connection of the receiving element and the fixing element, when the first projection is in engagement with the engagement portion, the second projection is latched by means of a movement of the receiving element in the circumferential direction thereof, causing the latching hook to yield, and the receiving element is thus clamped into the fixing element, characterized in that the angle between the first projection and the second projection is between 60 and 120 degrees with respect to the circumferential centre point of the receiving element, as viewed in a top view.
A WO phage transformation system, said system comprising: a) a protein with WO phage integrase activity, and b) a DNA vector comprising an attachment site (attP) recognized by the WO phage integrase protein. a) a protein with WO phage integrase activity, and b) a DNA vector comprising an attachment site (attP) recognized by the WO phage integrase protein.
A method operative in a content delivery network, CDN, having a set of edge servers organized into regions, wherein the edge servers provide delivery of content on behalf of participating content providers, and wherein a given content provider origin server may be reached over a set of routes, comprising: identifying one or more routes between the edge server and the content provider origin server; characterized by in response to a request for a given file received at a given edge server, initiating a concurrent download of the given file over each of the routes; and determining an optimal route between the edge server and the content provider origin server as a function of the concurrent downloads. identifying one or more routes between the edge server and the content provider origin server; characterized by in response to a request for a given file received at a given edge server, initiating a concurrent download of the given file over each of the routes; and determining an optimal route between the edge server and the content provider origin server as a function of the concurrent downloads.
A braking assembly for a dispenser that dispenses a continuous feed material, said braking assembly comprising: a housing; a brake; a first gear mounted in said housing, said first gear being rotatable about a first axis; a chassis movably connected to said housing; a second gear mounted on said chassis, said second gear being rotatable about a second axis that is parallel to said first axis; wherein teeth of said first gear and teeth of said second gear are configured to intermesh with each other and to allow continuous feed material to pass therethrough, said chassis being configured to maintain said first and second gears (30, 50) adjacent to each other while enabling a distance between said first and second gears (30, 50) to be adjustable by the second gear moving with the chassis; and characterized in that the brake is is connected to said first gear that controls an amount of force required to rotate said first gear. a housing; a brake; a first gear mounted in said housing, said first gear being rotatable about a first axis; a chassis movably connected to said housing; a second gear mounted on said chassis, said second gear being rotatable about a second axis that is parallel to said first axis; wherein teeth of said first gear and teeth of said second gear are configured to intermesh with each other and to allow continuous feed material to pass therethrough, said chassis being configured to maintain said first and second gears (30, 50) adjacent to each other while enabling a distance between said first and second gears (30, 50) to be adjustable by the second gear moving with the chassis; and characterized in that the brake is is connected to said first gear that controls an amount of force required to rotate said first gear.
A self-actuating cot comprising a support frame, a pair of legs (20, 40), and a hydraulic actuator (16, 18, 120), wherein: the support frame extends from a front end to a back end; the pair of legs (20, 40) is in movable engagement with the support frame; the hydraulic actuator (16, 18, 120) is in movable engagement with the pair of legs (20, 40) and the support frame, and extends and retracts the pair of legs (20, 40) with respect to the support frame; the hydraulic actuator comprises a cylinder housing and a rod (165, 265); the cylinder housing defines a hydraulic cylinder aligned with a motive direction of the rod (165, 265); characterized in that: the hydraulic actuator further comprises a sliding guide member (124, 126, 128, 130); the sliding guide member (124, 126, 128, 130) is in sliding engagement with the cylinder housing, and is in rigid engagement with the rod (165, 265); and the sliding guide member (124, 126, 128, 130) slides along a sliding direction with respect to the cylinder housing as the rod (165, 265) extends and retracts from the cylinder housing along the motive direction. the support frame extends from a front end to a back end; the pair of legs (20, 40) is in movable engagement with the support frame; the hydraulic actuator (16, 18, 120) is in movable engagement with the pair of legs (20, 40) and the support frame, and extends and retracts the pair of legs (20, 40) with respect to the support frame; the hydraulic actuator comprises a cylinder housing and a rod (165, 265); the cylinder housing defines a hydraulic cylinder aligned with a motive direction of the rod (165, 265); the hydraulic actuator further comprises a sliding guide member (124, 126, 128, 130); the sliding guide member (124, 126, 128, 130) is in sliding engagement with the cylinder housing, and is in rigid engagement with the rod (165, 265); and the sliding guide member (124, 126, 128, 130) slides along a sliding direction with respect to the cylinder housing as the rod (165, 265) extends and retracts from the cylinder housing along the motive direction.