mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for sending emails on behalf of a domain, the method comprising: receiving , at a platform, at least one message that identifies the domain; transmitting , from the platform, to a trusted entity computing device , a request to add email authentication information of the platform to a Domain Name System, DNS, record associated with the domain, the request including: (i) the platform's email authentication information , and (ii) an indication of the domain, wherein the platform's email authentication information enables authentication of emails sent by the platform on behalf of the domain; transmitting, from the trusted entity computing device , a message to a computing device used by an entity associated with the domain, the message querying whether the platform's email authentication information is authorized to be added to the DNS record associated with the domain; receiving, at the trusted entity computing device , a response from the computing device used by the entity associated with the domain, the response indicating that the platform's email authentication information is authorized to be added to the DNS record associated with the domain; receiving , at the platform, a response from the trusted entity computing device , the response indicating that the platform's email authentication information has been added to the DNS record associated with the domain; subsequent to receiving the response, instructing , by the platform, an email server of the platform to transmit an email from the domain. receiving , at a platform, at least one message that identifies the domain; transmitting , from the platform, to a trusted entity computing device , a request to add email authentication information of the platform to a Domain Name System, DNS, record associated with the domain, the request including: (i) the platform's email authentication information , and (ii) an indication of the domain, wherein the platform's email authentication information enables authentication of emails sent by the platform on behalf of the domain; transmitting, from the trusted entity computing device , a message to a computing device used by an entity associated with the domain, the message querying whether the platform's email authentication information is authorized to be added to the DNS record associated with the domain; receiving, at the trusted entity computing device , a response from the computing device used by the entity associated with the domain, the response indicating that the platform's email authentication information is authorized to be added to the DNS record associated with the domain; receiving , at the platform, a response from the trusted entity computing device , the response indicating that the platform's email authentication information has been added to the DNS record associated with the domain; subsequent to receiving the response, instructing , by the platform, an email server of the platform to transmit an email from the domain.
A camera module, comprising: a first camera module and a second camera module spaced apart from the first camera module , wherein the first camera module comprises a cover ; a housing disposed in the cover ; a bobbin disposed in the housing ; a first coil disposed on the bobbin ; a first magnet disposed on the housing ; a second coil facing the first magnet ; a second magnet disposed on the bobbin ; and a first sensor detecting the second magnet , wherein the cover comprises a first lateral plate disposed adjacent to the second camera module , a second lateral plate disposed opposite to the first lateral plate, and a third lateral plate and a fourth lateral plate disposed opposite to each other between the first lateral plate and the second lateral plate, wherein the first magnet comprises a first-first magnet disposed at a position corresponding to the second lateral plate, a first-second magnet disposed at a position corresponding to the third lateral plate, and a first-third magnet disposed at a position corresponding to the fourth lateral plate, and wherein a first dummy member and the first sensor are disposed at a position corresponding to the first lateral plate of the cover , characterized in that the first dummy member comprises two dummy members spaced apart from each other, and when viewed from below, the second magnet is disposed between the two dummy members. a first camera module and a second camera module spaced apart from the first camera module , wherein the first camera module comprises a cover ; a housing disposed in the cover ; a bobbin disposed in the housing ; a first coil disposed on the bobbin ; a first magnet disposed on the housing ; a second coil facing the first magnet ; a second magnet disposed on the bobbin ; and a first sensor detecting the second magnet , wherein the cover comprises a first lateral plate disposed adjacent to the second camera module , a second lateral plate disposed opposite to the first lateral plate, and a third lateral plate and a fourth lateral plate disposed opposite to each other between the first lateral plate and the second lateral plate, wherein the first magnet comprises a first-first magnet disposed at a position corresponding to the second lateral plate, a first-second magnet disposed at a position corresponding to the third lateral plate, and a first-third magnet disposed at a position corresponding to the fourth lateral plate, and wherein a first dummy member and the first sensor are disposed at a position corresponding to the first lateral plate of the cover , characterized in that the first dummy member comprises two dummy members spaced apart from each other, and when viewed from below, the second magnet is disposed between the two dummy members.
Optical table with a table top and at least one table leg , wherein • securing means for securing objects are provided in a table surface of the table top , • the at least one table leg is equipped with a damping device for damping vibrations, wherein • a cryocooler for cooling a cryogenic plate is provided underneath the table top , wherein the cryogenic plate is in thermal contact with the cryocooler and can be cooled by it, • a reinforcing structure is provided between the cryocooler and at least one table leg , o wherein the reinforcing structure is rigidly connected to the at least one table leg underneath the damping device and o the cryocooler is supported on the reinforcing structure and is connected to it, • a through hole in the table top is provided above the cryocooler , in which the cryogenic plate is arranged, • the damping device is arranged between the at least one table leg and the table top , and • the reinforcing structure is a plate or a frame with a holding device which rigidly connects the cryocooler and the at least one table leg underneath the damping device . • securing means for securing objects are provided in a table surface of the table top , • the at least one table leg is equipped with a damping device for damping vibrations, wherein • a cryocooler for cooling a cryogenic plate is provided underneath the table top , wherein the cryogenic plate is in thermal contact with the cryocooler and can be cooled by it, • a reinforcing structure is provided between the cryocooler and at least one table leg , o wherein the reinforcing structure is rigidly connected to the at least one table leg underneath the damping device and o the cryocooler is supported on the reinforcing structure and is connected to it, o wherein the reinforcing structure is rigidly connected to the at least one table leg underneath the damping device and o the cryocooler is supported on the reinforcing structure and is connected to it, • a through hole in the table top is provided above the cryocooler , in which the cryogenic plate is arranged, • the damping device is arranged between the at least one table leg and the table top , and • the reinforcing structure is a plate or a frame with a holding device which rigidly connects the cryocooler and the at least one table leg underneath the damping device .
A rotational atherectomy device for removing stenotic lesion material from a blood vessel of a patient, the device comprising: an elongate flexible drive shaft comprising a torque-transmitting coil and defining a longitudinal axis, the drive shaft being configured to rotate about the longitudinal axis ; first and second abrasive elements attached to a distal end portion of the drive shaft and each having a center of mass offset from the longitudinal axis, the center of mass of the first abrasive element being offset from the longitudinal axis at a first radial angle, the center of mass of the second abrasive element being offset from the longitudinal axis at a second radial angle that differs from the first radial angle, wherein the second radial angle and the first radial angle differ from each other by a relative radial offset in a range of between 5 degrees and about 50 degrees; and characterised in that the drive shaft has a distal stability element fixedly mounted thereto without a proximal stability element located proximal to the abrasive elements , the distal stability element having a center of mass aligned with the longitudinal axis and being distally spaced apart from the first and second abrasive elements, and in that the distal stability element and abrasive elements are configured such that the distal stability element remains in general alignment with the longitudinal axis during rotation of the drive shaft but a portion of the drive shaft adjacent to the abrasive elements orbits around the longitudinal axis . an elongate flexible drive shaft comprising a torque-transmitting coil and defining a longitudinal axis, the drive shaft being configured to rotate about the longitudinal axis ; first and second abrasive elements attached to a distal end portion of the drive shaft and each having a center of mass offset from the longitudinal axis, the center of mass of the first abrasive element being offset from the longitudinal axis at a first radial angle, the center of mass of the second abrasive element being offset from the longitudinal axis at a second radial angle that differs from the first radial angle, wherein the second radial angle and the first radial angle differ from each other by a relative radial offset in a range of between 5 degrees and about 50 degrees; and characterised in that the drive shaft has a distal stability element fixedly mounted thereto without a proximal stability element located proximal to the abrasive elements , the distal stability element having a center of mass aligned with the longitudinal axis and being distally spaced apart from the first and second abrasive elements, and in that the distal stability element and abrasive elements are configured such that the distal stability element remains in general alignment with the longitudinal axis during rotation of the drive shaft but a portion of the drive shaft adjacent to the abrasive elements orbits around the longitudinal axis .
A method for managing a mobile node of a software-defined networking (SDN) controller, comprising: receiving a first router solicitation message of a mobile node transmitted through a first AP operated by the SDN controller; allocating a prefix to each flow based on information relating to a flow type included in the first router solicitation message by the mobile node; storing the allocated prefix information in a binding cache entry,BCE, for each of the mobile node; transmitting a router advertisement message confirming that the information relating to the flow type is registered in the SDN controller to the mobile node through the first AP; and transmitting a flow transmitted in the mobile node to a destination node in accordance with the prefix information stored in the BCE, receiving a second router solicitation message of a mobile node transmitted through a second AP operated by the SDN controller; wherein, in the first router solicitation message and the second router solicitation message, information for distinguishing between a first type that does not require session maintenance of a flow recorded by the mobile node, a second type that requires the session maintenance of the flow, or a third type in which an IP of the flow is fixed is recorded, and the allocating the prefix allocates a first prefix to the first type and the third type of the flows, and allocates a second prefix to the second type of the flow, wherein, when the prefix information included in the second router solicitation message indicates the second prefix, determining that a handover has occurred from the first AP to the second AP. receiving a first router solicitation message of a mobile node transmitted through a first AP operated by the SDN controller; allocating a prefix to each flow based on information relating to a flow type included in the first router solicitation message by the mobile node; storing the allocated prefix information in a binding cache entry,BCE, for each of the mobile node; transmitting a router advertisement message confirming that the information relating to the flow type is registered in the SDN controller to the mobile node through the first AP; and transmitting a flow transmitted in the mobile node to a destination node in accordance with the prefix information stored in the BCE, receiving a second router solicitation message of a mobile node transmitted through a second AP operated by the SDN controller; wherein, in the first router solicitation message and the second router solicitation message, information for distinguishing between a first type that does not require session maintenance of a flow recorded by the mobile node, a second type that requires the session maintenance of the flow, or a third type in which an IP of the flow is fixed is recorded, and the allocating the prefix allocates a first prefix to the first type and the third type of the flows, and allocates a second prefix to the second type of the flow, wherein, when the prefix information included in the second router solicitation message indicates the second prefix, determining that a handover has occurred from the first AP to the second AP.
An sanitary tissue product comprising a plurality of fibers wherein the sanitary tissue product exhibits a basis weight of from 40 g/m 2 to 500 g/m 2 as measured according to the Basis Weight Test Method, a Low Load Wet Resiliency of greater than 0.95 as measured according to the Wet and Dry Compressive Modulus Test Methods and a Bending Modulus of less than 10.00 as measured according to the Bending Modulus Test Method, wherein the sanitary tissue product comprises at least one mono-fibrous wet-laid fibrous structure and at least one co-formed fibrous structure that are associated with one another by compression bonding or thermal bonding, said at least one mono-fibrous wet-laid structure comprising hardwood and/or softwood pulp fibers and comprising a non-random, repeating surface pattern, said at least one co-formed fibrous structure exhibiting a basis weight of from 15 g/m 2 to 400 g/m 2 as measured according to the Basis Weight Test Method and comprising a core component being a co-formed fibrous structure comprising a plurality of filaments and a plurality of pulp fibers with a weight ratio of filaments to fibers of at least 1:10, said filaments comprising a thermoplastic polymer and said pulp fibers comprised in the core component being selected from the group consisting of softwood kraft pulp fibers, hardwood fibers and mixtures thereof.
Holding device for application of a sealing element on a shaft , wherein the holding device comprises an annular body , a connection mechanism which is adapted to connect the annular body with the sealing element and at least one attachment device which is adapted to attach the annular body on the shaft , wherein the annular body comprises an inner surface which, in an axial direction, is arranged at successively decreasing radial distances from the shaft , and that the attachment device comprises at least one clamping element which is arranged in a space between inner surface of the annular body and, in the assembled state, the shaft , and a displacement device which is adapted to displace the clamping element in said axial direction in relation to the annular body to a position in which an inner surface of the annular body presses firmly the clamping element against the shaft , wherein the clamping element is formed as a segment of a ring and wherein the segment comprises an inner surface having a corresponding curved form as an outer surface of the shaft on which the annular body is adapted to be attached, characterized in that the annular body comprises, at a first end, a first sealing member which is configured to provide a sealing between a surface of the annular body and a radially outer surface of the sealing element and, at a second end, a second sealing member which is configured to provide a sealing between a surface of the annular body and the shaft surface .
A method of operating an emitter array of a plurality of x-ray emitting regions, wherein the x-ray emitting regions are individual and are operable to emit x-rays detected by a detector to render images of a subject, comprising: accessing a first image data acquired at a first time (T 0 ); determining at least a possible region of change in the first image data; analyzing the first image data at the determined possible region of change; selecting, using an input of the said possible region of change, a sub-plurality of a plurality of the x-ray emitting regions in the emitting array to be powered at a second time, to generate a second image data at a later time (t n ); and accessing the second image data acquired at the second time based on the selected sub-plurality of the plurality of the x-ray emitting regions. accessing a first image data acquired at a first time (T 0 ); determining at least a possible region of change in the first image data; analyzing the first image data at the determined possible region of change; selecting, using an input of the said possible region of change, a sub-plurality of a plurality of the x-ray emitting regions in the emitting array to be powered at a second time, to generate a second image data at a later time (t n ); and accessing the second image data acquired at the second time based on the selected sub-plurality of the plurality of the x-ray emitting regions.
A method implemented by a wireless transmit/receive unit, WTRU, , the method comprising: receiving a physical downlink control channel, PDCCH, order, the PDCCH order indicating that the WTRU should initiate a random access procedure, wherein the PDCCH order comprises downlink control information, DCI, that comprises a coverage enhancement, CE, level to be used for the random access procedure; transmitting a preamble using a physical random access channel, PRACH, , resource based on the received PDCCH order; and repeating the preamble, wherein the number of repetitions of the preamble is based on the CE level. receiving a physical downlink control channel, PDCCH, order, the PDCCH order indicating that the WTRU should initiate a random access procedure, wherein the PDCCH order comprises downlink control information, DCI, that comprises a coverage enhancement, CE, level to be used for the random access procedure; transmitting a preamble using a physical random access channel, PRACH, , resource based on the received PDCCH order; and repeating the preamble, wherein the number of repetitions of the preamble is based on the CE level.
Method for calculating a set position ( Cons_pos_turb ) of a turbocharger of a heat engine provided with a compressor and a turbine intended to be driven by gases exhaust, characterized in that said method comprises: - a step of determining a suitable power P adapt determined from the following formula: P adapt = P comp P 4 T 3 With P comp a power sent to the compressor; P 4 a pressure downstream of the turbine ; T 3 a temperature upstream of the turbine. - a step of determining a suitable flow rate Q adapt determined from the following formula: Q adapt = Q ech T 3 P 4 With Q ech exhaust gas flow; - a step of determining the set position ( Cons_pos_turb ) of the turbocharger from the adapted power P adapt and the adapted flow rate Q adapt , And - a step of controlling the turbocharger according to the set point position ( Cons_pos_turb ) previously determined . - a step of determining a suitable power P adapt determined from the following formula: P adapt = P comp P 4 T 3 With P comp a power sent to the compressor; P 4 a pressure downstream of the turbine ; T 3 a temperature upstream of the turbine. - a step of determining a suitable flow rate Q adapt determined from the following formula: Q adapt = Q ech T 3 P 4 With Q ech exhaust gas flow; - a step of determining the set position ( Cons_pos_turb ) of the turbocharger from the adapted power P adapt and the adapted flow rate Q adapt , And - a step of controlling the turbocharger according to the set point position ( Cons_pos_turb ) previously determined .
Processing device having at least one processing station and at least one transport device , wherein the transport device is set up to transport at least one magnetically levitated transport unit , which is set up to accommodate a processing object , to and/or from the at least one processing station , wherein the processing station is arranged to apply a processing force (F) to the processing object , characterized in that the processing station has at least one support unit to which the at least one transport unit can be coupled and wherein the support unit forms an abutment against the processing force (F).
A method for status-based maintenance of an access device (2a, b) of a vehicle , in particular of a public transport vehicle , wherein a movable element (3a, b) of the access device (2a, b) is moved by an electric motor (4a, b) of the access device (2a, b), wherein a speed of the movable element (3a, b) and at least one electric operating parameter of the motor (4a, b) is established on the movement of the movable element (3a, b), characterized in that , based on the established speed, the established at least one electric operating parameter and at least one predefined efficiency curve of the motor (4a, b) a torque, delivered by the motor (4a, b) on movement, is established, and wherein based on the established torque a status of the motor (4a, b) is determined.