mhurhangee/ep-ind-claims huggingface dataset:
A finite impulse response filter comprising: an input port; an output port; a plurality of waveguides coupled to the input port and the output port, the plurality of waveguides including a first optical waveguide comprising: a first waveguide section consisting of an extent of the first waveguide that is subjected to an ambient temperature of the optical device; and a second waveguide section, wherein the second waveguide section is to have an operating temperature that is fixed and greater than the ambient temperature of the optical device; wherein each of the plurality of waveguides has an extent that is subjected to the ambient temperature of the optical device, each extent having a length equal to the length of the first waveguide section; at least one heating element to heat the second waveguide section of the first waveguide; a temperature sensor to measure the temperature of the second waveguide section; and a temperature controller to control the heating element(s) based, at least in part, on the temperature sensor so that the temperature of the second waveguide section is fixed and greater than the ambient temperature of the optical device. an input port; an output port; a plurality of waveguides coupled to the input port and the output port, the plurality of waveguides including a first optical waveguide comprising: a first waveguide section consisting of an extent of the first waveguide that is subjected to an ambient temperature of the optical device; and a second waveguide section, wherein the second waveguide section is to have an operating temperature that is fixed and greater than the ambient temperature of the optical device; a first waveguide section consisting of an extent of the first waveguide that is subjected to an ambient temperature of the optical device; and a second waveguide section, wherein the second waveguide section is to have an operating temperature that is fixed and greater than the ambient temperature of the optical device; wherein each of the plurality of waveguides has an extent that is subjected to the ambient temperature of the optical device, each extent having a length equal to the length of the first waveguide section; at least one heating element to heat the second waveguide section of the first waveguide; a temperature sensor to measure the temperature of the second waveguide section; and a temperature controller to control the heating element(s) based, at least in part, on the temperature sensor so that the temperature of the second waveguide section is fixed and greater than the ambient temperature of the optical device.
Cover sheet for protecting pages of a security document, said cover sheet comprising a cover material sheet attached to an end paper sheet of the cover sheet, wherein the cover sheet comprises at least one kiss cutting inside the depth of the cover sheet and characterized in that the at least one kiss cutting is extended in the plane in the cover sheet without causing any visible marks on the external surfaces of the cover sheet in order to prevent any splitting inside said cover sheet by delaminating the cover material sheet from the end paper sheet.
A chemical reaction heat source (1, 5) with a configured heating pattern (4, 6) for use in heaters for down-hole applications, said heat source having a fuel composition that comprises thermite and a damping agent and is in the form of a plurality of fuel composition blocks, each block having a pre-determined ratio of thermite to damping agent that determines the heat generation capabilities of said block; and characterised in that the blocks have a range of differing pre-determined ratios of thermite to damping agent and are arranged in series so that each block ignites in accordance with a pre-arranged order to produce said heating pattern (4, 6).
Cover with a device for assisting displacement, at least comprising a guide, a slider and a spring device, wherein the slider is displaceable along the guide and is connected with the spring device, characterised in that - the device for assisting displacement comprises a guide gate extending at least partly along the guide, - the slider comprises an entrainer arrangement and at least one guide pin (80; 82), - the at least one guide pin (80; 82) is displaceably mounted in the guide gate and the guide gate has a first end section which defines a detent setting of the slider, - the slider is stressed in the detent setting by way of the spring device, - the cover is at least partly displaceable by way of the entrainer arrangement, - the slider can be brought by way of the cover into and out of the detent setting and - the construction of the guide gate makes it possible for the slider after reaching the detent setting in the first end section to no longer remain in contact with the entrainer. - the device for assisting displacement comprises a guide gate extending at least partly along the guide, - the slider comprises an entrainer arrangement and at least one guide pin (80; 82), - the at least one guide pin (80; 82) is displaceably mounted in the guide gate and the guide gate has a first end section which defines a detent setting of the slider, - the slider is stressed in the detent setting by way of the spring device, - the cover is at least partly displaceable by way of the entrainer arrangement, - the slider can be brought by way of the cover into and out of the detent setting and - the construction of the guide gate makes it possible for the slider after reaching the detent setting in the first end section to no longer remain in contact with the entrainer.
A computer-readable storage medium storing a set of instructions which when executed by a computer at a device virtualization service, DVS, server, causes the computer to perform a method for providing a user interface for a networked service on a mobile device, the instructions comprising: providing from the server a generalized thick client to the mobile device, wherein the thick client is configured to perform data processing on the mobile device and maintain storage external to the mobile device; obtaining at the server the mobile device characteristics; receiving at the server a request for data from the mobile device (324,326); requesting at the server the data from a service provider (328, 330), wherein the data received from the service provider is device independent; compiling at the server the data from the service provider into an optimal format, wherein the optimal format includes a format associated with the mobile device characteristics; and responding from the server to the received request for data by sending the optimized formatted data to the generalized thick client. providing from the server a generalized thick client to the mobile device, wherein the thick client is configured to perform data processing on the mobile device and maintain storage external to the mobile device; obtaining at the server the mobile device characteristics; receiving at the server a request for data from the mobile device (324,326); requesting at the server the data from a service provider (328, 330), wherein the data received from the service provider is device independent; compiling at the server the data from the service provider into an optimal format, wherein the optimal format includes a format associated with the mobile device characteristics; and responding from the server to the received request for data by sending the optimized formatted data to the generalized thick client.
A method for the verification of the correct content of an encoded message, the method comprising: a) receiving, by an encoding module computer device, from a user, a message including a content to be encoded; and b) generating, by the encoding module computer device, a generated encoding of the content of the received message using encoding information, wherein the method further comprises: c) sending, by the encoding module computer device, said generated encoding to a reception module computer device; and d) verifying, by the reception module computer device, that the generated encoding corresponds to the encoding of the content of the message by using a generated verification information and public information, wherein: - said verification information is generated, either by the encoding module computer device, a verification information generator module computer device, or both together, by using the generated encoding, said public information and at least one code associated with the message using a OR zero-knowledge proof of knowledge or a AND zero-knowledge proof of knowledge procedure, - said public information is generated by a configuration module computer device, - the encoding information comprises random or pseudo-random data, - the message and the at least one code are included in a validation list generated by said configuration module computer device, - the at least one code is a private key linked to the message and has a cryptographic relationship with the public information and with the message, and - the public information and the message have a cryptographic or a public relationship. a) receiving, by an encoding module computer device, from a user, a message including a content to be encoded; and b) generating, by the encoding module computer device, a generated encoding of the content of the received message using encoding information, wherein the method further comprises: c) sending, by the encoding module computer device, said generated encoding to a reception module computer device; and d) verifying, by the reception module computer device, that the generated encoding corresponds to the encoding of the content of the message by using a generated verification information and public information, - said verification information is generated, either by the encoding module computer device, a verification information generator module computer device, or both together, by using the generated encoding, said public information and at least one code associated with the message using a OR zero-knowledge proof of knowledge or a AND zero-knowledge proof of knowledge procedure, - said public information is generated by a configuration module computer device, - the encoding information comprises random or pseudo-random data, - the message and the at least one code are included in a validation list generated by said configuration module computer device, - the at least one code is a private key linked to the message and has a cryptographic relationship with the public information and with the message, and - the public information and the message have a cryptographic or a public relationship.
A method for generating traffic data indicative of traffic volume and/or traffic density within a navigable network in an area covered by an electronic map, the electronic map comprising a plurality of segments representing navigable elements of the navigable network, the method comprising: obtaining positional data relating to the movement of a plurality of devices along the navigable elements represented by the segments of the electronic map; determining, using at least positional data relating to one or more congested segments within a region of the navigable network, an estimate of one or more average penetration rates for the region, wherein a congested segment is a segment having traffic conditions such that vehicles travel along the segment at a substantially constant and reduced collective speed relative to an expected free flow speed for the segment; determining, based on the obtained positional data, a sample volume for a non-congested segment within the region, wherein the sample volume is indicative of a number of the plurality of devices counted on the non-congested segment within a certain time or within a length interval of the non-congested segment; and estimating, using the determined sample volume and a selected one of the average penetration rates for the region, a traffic volume and/or traffic density for the non-congested segment. obtaining positional data relating to the movement of a plurality of devices along the navigable elements represented by the segments of the electronic map; determining, using at least positional data relating to one or more congested segments within a region of the navigable network, an estimate of one or more average penetration rates for the region, wherein a congested segment is a segment having traffic conditions such that vehicles travel along the segment at a substantially constant and reduced collective speed relative to an expected free flow speed for the segment; determining, based on the obtained positional data, a sample volume for a non-congested segment within the region, wherein the sample volume is indicative of a number of the plurality of devices counted on the non-congested segment within a certain time or within a length interval of the non-congested segment; and estimating, using the determined sample volume and a selected one of the average penetration rates for the region, a traffic volume and/or traffic density for the non-congested segment.
A method of printing on a 3D jet printer including controlled displacement of a 3D printer printing head, the supply of at least two filaments of a fusible material to the printing head having multiple nozzles (9, 10), the heating of the filaments by temperature-controlled heaters, the alternate activation of one of the nozzles (9, 10) by means of a printer control module, and the pressurized supply of a filament to the active nozzle (9, 10), wherein during switching of the nozzles (9, 10), the printer control module activates a printing head displacement module, which transfers one of the nozzles (9, 10) into an active position, characterized in that the movement of a movable platform situated inside the printing head alters the position of the nozzles (9, 10) relative to a valve for the nozzles, thereby closing off the openings of the inactive nozzles (9, 10) and freeing the opening of the active nozzle (9, 10), and once the movable platform is completely secured in an active nozzle (9, 10) activation position, the printer continues printing using the active nozzle (9, 10).
Process for distillative separation of a multicomponent mixture comprising a low boiler comprising dichlorosilane and at least one boron-, phosphorus- or arsenic-containing impurity, a middle boiler comprising trichlorosilane and at least one boron-, phosphorus- or arsenic-containing impurity, and a high boiler comprising silicon tetrachloride, wherein the multicomponent mixture is supplied to a first column to remove the at least one high boiler comprising silicon tetrachloride as bottoms fraction and a tops fraction comprising dichlorosilane, trichlorosilane and at least one boron-, phosphorus- or arsenic-containing impurity is supplied to a second distillation column, wherein in the second distillation column the at least one middle boiler comprising trichlorosilane is removed via a side draw and the at least one low boiler comprising dichlorosilane is removed as tops fraction, wherein at least one bottom draw from the second distillation column is passed through an adsorber for removing the at least one boron-, phosphorus- or arsenic-containing impurity and subsequently returned to the first distillation column as reflux, wherein both distillation columns comprise vertical dividing walls, wherein the dividing wall of the first distillation column extends as far as the upper end of the distillation column and the dividing wall of the second distillation column extends as far as the lower end of the distillation column.
A container adapter for a bicycle luggage carrier comprising a luggage carrier platform b) comprising at least two latches (15, 16) comprising locking hooks (17, 18) provided on the adapter for b1) the connection of one of the two outmost longitudinal bracings (19, 20) of the luggage carrier with the adapter; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks (17, 18) are tongued in the direction of the clamping of the adapter and the luggage carrier, b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform; c) the latches (15, 16), in the locked state, coming from beneath, reach under respectively one longitudinal bracing (19, 20) of a luggage carrier, d) the latches (15, 16) are mounted on at least one objective joint axis so as to be rotatable and comprise each a handle (24, 25) for actuating these latches (15, 16), characterized in a) that the adapter comprises at least one one-piece or multi-piece traverse (13, 14) which spans the luggage carrier and b) that the latches (15, 16) can be pre-adjusted with respect to the spatial location thereof. b) comprising at least two latches (15, 16) comprising locking hooks (17, 18) provided on the adapter for b1) the connection of one of the two outmost longitudinal bracings (19, 20) of the luggage carrier with the adapter; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks (17, 18) are tongued in the direction of the clamping of the adapter and the luggage carrier, b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform; b1) the connection of one of the two outmost longitudinal bracings (19, 20) of the luggage carrier with the adapter; wherein in a locked condition of the adapter on the luggage carrier b1α) the locking hooks (17, 18) are tongued in the direction of the clamping of the adapter and the luggage carrier, b2) the spring(s) is/are at least partially arranged beneath the luggage carrier platform; c) the latches (15, 16), in the locked state, coming from beneath, reach under respectively one longitudinal bracing (19, 20) of a luggage carrier, d) the latches (15, 16) are mounted on at least one objective joint axis so as to be rotatable and comprise each a handle (24, 25) for actuating these latches (15, 16), a) that the adapter comprises at least one one-piece or multi-piece traverse (13, 14) which spans the luggage carrier and b) that the latches (15, 16) can be pre-adjusted with respect to the spatial location thereof.
A system for identifying autonomic nervous system tissue within an image of a heart of a patient, the system comprising: a module configured to receive functional imaging modality data from a functional imaging modality configured to image an intrabody volume of a patient containing a heart, wherein the functional imaging modality data reflects a baseline state of the patient who has been injected with an imaging agent having a nervous tissue uptake by an ANS of the heart; a module configured to receive anatomical imaging modality data from an anatomical imaging modality configured to image the intrabody volume of the patient containing the heart; a module configured to locate, based on the functional imaging modality data, at least one ganglionic plexi innervating the heart and comprised within the ANS; and a module configured to position the located at least one GP on the anatomical imaging modality data. a module configured to receive functional imaging modality data from a functional imaging modality configured to image an intrabody volume of a patient containing a heart, wherein the functional imaging modality data reflects a baseline state of the patient who has been injected with an imaging agent having a nervous tissue uptake by an ANS of the heart; a module configured to receive anatomical imaging modality data from an anatomical imaging modality configured to image the intrabody volume of the patient containing the heart; a module configured to locate, based on the functional imaging modality data, at least one ganglionic plexi innervating the heart and comprised within the ANS; and a module configured to position the located at least one GP on the anatomical imaging modality data.
An apparatus, comprising: a body of an aircraft; a wing (180, 280, 380, 480, 680) coupled to the body, the wing configured to pivot forward from a deployed configuration, in which the wing (180, 280, 380, 480, 680) extends from the body, to a retracted configuration, in which a tip portion of the wing (180, 280, 380, 480, 680) is closer to a nose portion of the body than a root portion of the wing (180, 280, 380, 480, 680) is to the nose portion; wherein a hinged beam is configured to transmit loads associated with flight from the wing (180, 280, 380, 480, 680) to the body, a first portion (112, 212, 512) of the beam being pivotably coupled to a second portion (114, 214, 514) of the beam; characterized by: the second portion of the beam being pivotably coupled to a root of the wing, and the wing (180, 280, 380, 480, 680) has a positive dihedral in the deployed configuration and is substantially horizontal in the retracted configuration. a body of an aircraft; a wing (180, 280, 380, 480, 680) coupled to the body, the wing configured to pivot forward from a deployed configuration, in which the wing (180, 280, 380, 480, 680) extends from the body, to a retracted configuration, in which a tip portion of the wing (180, 280, 380, 480, 680) is closer to a nose portion of the body than a root portion of the wing (180, 280, 380, 480, 680) is to the nose portion; wherein a hinged beam is configured to transmit loads associated with flight from the wing (180, 280, 380, 480, 680) to the body, a first portion (112, 212, 512) of the beam being pivotably coupled to a second portion (114, 214, 514) of the beam; characterized by: the second portion of the beam being pivotably coupled to a root of the wing, and the wing (180, 280, 380, 480, 680) has a positive dihedral in the deployed configuration and is substantially horizontal in the retracted configuration.
A laser cutting system, comprising: a platen having a plurality of structural members defining a frame configured to receive a workpiece for a cutting operation; a laser torch head movable in relation to the platen to selectively cut the workpiece; the laser cutting system being characterised by: protective panels mounted to all structural table members that are located over the effective cutting area, the protective panel being configured to absorb light and energy from the laser torch head during the cutting operation. a platen having a plurality of structural members defining a frame configured to receive a workpiece for a cutting operation; a laser torch head movable in relation to the platen to selectively cut the workpiece; the laser cutting system being characterised by: protective panels mounted to all structural table members that are located over the effective cutting area, the protective panel being configured to absorb light and energy from the laser torch head during the cutting operation.
Yarn sensor for optically sensing a yarn moved in the longitudinal direction of the yarn, comprising a light source and a detector, comprising a light guiding element for guiding the light emitted by the light source and yarn guiding elements in order to bring a yarn into contact with the outer surface of the light guiding element, wherein the light guiding elements are designed in such a way that if no yarn is in contact with the outer surface of the light guiding element, total reflection is achieved and at least one part of the light is coupled out of the light guiding element by contact with the yarn and the detector is arranged and designed to detect the light that is coupled out of the light guiding element or to evaluate the reduced intensity in the totally reflected beam. wherein the light guiding elements are designed in such a way that if no yarn is in contact with the outer surface of the light guiding element, total reflection is achieved and at least one part of the light is coupled out of the light guiding element by contact with the yarn and the detector is arranged and designed to detect the light that is coupled out of the light guiding element or to evaluate the reduced intensity in the totally reflected beam.