mhurhangee/patent-ind-claim-en huggingface dataset:
An operating method of a terminal for a multinet aggregation service, comprising: receiving access information of a gateway providing the multinet aggregation service from an authentication server ; accessing the gateway corresponding to the access information through a first network to perform a connection procedure, when a packet transmitted to a server is generated; generating a first subflow through the first network when the connection procedure to the gateway succeeds; and generating a second subflow joined to the first subflow through a second network, wherein the access information helps the terminal to access the gateway , wherein the performing of the connection procedure includes: transmitting user information to the gateway ; receiving a user authentication result determined based on the user information from the gateway ; transmitting server information to the gateway when the user authentication result succeeds; and receiving the connection result to the server from the gateway , wherein the gateway is a network apparatus that is positioned at a contact between the first network and the second network and is proxy-connected to the terminal and the server for data communication between the terminal and the server through the first subflow and the second subflow when the connection procedure to the gateway succeeds, said method further comprising accessing the server through a default route when the connection procedure to the gateway fails. receiving access information of a gateway providing the multinet aggregation service from an authentication server ; accessing the gateway corresponding to the access information through a first network to perform a connection procedure, when a packet transmitted to a server is generated; generating a first subflow through the first network when the connection procedure to the gateway succeeds; and generating a second subflow joined to the first subflow through a second network, wherein the access information helps the terminal to access the gateway , wherein the performing of the connection procedure includes: transmitting user information to the gateway ; receiving a user authentication result determined based on the user information from the gateway ; transmitting server information to the gateway when the user authentication result succeeds; and receiving the connection result to the server from the gateway , transmitting user information to the gateway ; receiving a user authentication result determined based on the user information from the gateway ; transmitting server information to the gateway when the user authentication result succeeds; and receiving the connection result to the server from the gateway , wherein the gateway is a network apparatus that is positioned at a contact between the first network and the second network and is proxy-connected to the terminal and the server for data communication between the terminal and the server through the first subflow and the second subflow when the connection procedure to the gateway succeeds, said method further comprising accessing the server through a default route when the connection procedure to the gateway fails.
A load operation control system, comprising: a drive shaft which rotates a load; a drive support which includes driving coils (66a to 66c) and supporting coils (67a to 67c), and rotates the drive shaft and supports a radial load of the drive shaft in a non-contact manner, by driving magnetic flux and supporting magnetic flux generated by flow of a current within a predetermined current range through-the driving coils (66a to 66c) and the supporting coils (67a to 67c); and a control section which controls an operating condition of the load based on a magnetic flux margin degree expressed by a difference between: a total magnetic flux amount including the driving magnetic flux and the supporting magnetic flux; and a predetermined limit of the total magnetic flux amount for the drive support , the driving magnetic flux being generated at the drive support for rotating the drive shaft and the supporting magnetic flux being generated at the drive support for supporting the radial load of the drive shaft in a predetermined operation region of the load. a drive shaft which rotates a load; a drive support which includes driving coils (66a to 66c) and supporting coils (67a to 67c), and rotates the drive shaft and supports a radial load of the drive shaft in a non-contact manner, by driving magnetic flux and supporting magnetic flux generated by flow of a current within a predetermined current range through-the driving coils (66a to 66c) and the supporting coils (67a to 67c); and a control section which controls an operating condition of the load based on a magnetic flux margin degree expressed by a difference between: a total magnetic flux amount including the driving magnetic flux and the supporting magnetic flux; and a predetermined limit of the total magnetic flux amount for the drive support , the driving magnetic flux being generated at the drive support for rotating the drive shaft and the supporting magnetic flux being generated at the drive support for supporting the radial load of the drive shaft in a predetermined operation region of the load.
Method for setting up a secure communication channel for interchanging data between a first and a second network device by using a secure protocol , wherein the second network device is configured to stipulate the secure protocol on the basis of protocol stipulation data indicating prerequisites for the secure protocol , comprising: producing (S1) security data by means of an issuer device , wherein the security data define the protocol stipulation data; signing the security data with a digital signature or a message authentication code by means of the issuer device ; transmitting (S2) the security data to the first network device from the issuer device ; transmitting (S3) the security data to the second network device from the first network device ; verifying the authenticity of the security data by means of the second network device by checking the digital signature or the message authentication code; and updating obsolete protocol stipulation data of the second network device on the basis of the protocol stipulation data defined by the received security data. producing (S1) security data by means of an issuer device , wherein the security data define the protocol stipulation data; signing the security data with a digital signature or a message authentication code by means of the issuer device ; transmitting (S2) the security data to the first network device from the issuer device ; transmitting (S3) the security data to the second network device from the first network device ; verifying the authenticity of the security data by means of the second network device by checking the digital signature or the message authentication code; and updating obsolete protocol stipulation data of the second network device on the basis of the protocol stipulation data defined by the received security data.
A method of processing an audio signal for replay on an audio device, the audio signal encoded as a mid channel and a side channel , the method comprising: transmitting the side channel to a first signal pathway, wherein the first signal pathway includes a first full-band dynamic range compressor and outputs a processed side channel as a first signal pathway output; transmitting the mid channel to a second signal pathway and performing a spectral decomposition of the mid channel into a plurality of sub-band signals; processing the plurality of sub-band signals by: providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT). transmitting the side channel to a first signal pathway, wherein the first signal pathway includes a first full-band dynamic range compressor and outputs a processed side channel as a first signal pathway output; transmitting the mid channel to a second signal pathway and performing a spectral decomposition of the mid channel into a plurality of sub-band signals; processing the plurality of sub-band signals by: providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT). providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT).
A method for ascertaining a heat requirement of a building based upon heat consumption data, in which an overall heat loss coefficient ( u A ) is determined, characterized in that - the overall heat loss coefficient ( u A ) is determined proceeding from a measured or determined building heat loss ( Q RH , Q ) , and that - the overall heat loss coefficient ( u A ) is divided into a time-invariant transmission heat throughput coefficient ( u trans ), which considers the heat permeability of the building envelope due to heat conduction, and a time-variant ventilation heat loss coefficient ( u inf ) , which considers time-dependent ventilation losses, which comprise the time-dependent ventilation behavior of the user as well as a wind load that changes over time or some other time-variant, infiltration-induced disturbance variables, wherein the transmission heat throughput coefficient ( u trans ) is calculated using the overall heat loss coefficient (min( u A )) and a minimal estimated ventilation heat loss coefficient (min( u inf )), and wherein the ventilation heat loss coefficient ( u inf ) is calculated from the overall heat loss coefficient ( u A ) and the transmission heat throughput coefficient ( u trans ). - the overall heat loss coefficient ( u A ) is determined proceeding from a measured or determined building heat loss ( Q RH , Q ) , and that - the overall heat loss coefficient ( u A ) is divided into a time-invariant transmission heat throughput coefficient ( u trans ), which considers the heat permeability of the building envelope due to heat conduction, and a time-variant ventilation heat loss coefficient ( u inf ) , which considers time-dependent ventilation losses, which comprise the time-dependent ventilation behavior of the user as well as a wind load that changes over time or some other time-variant, infiltration-induced disturbance variables,
Method for processing data, implemented on a program-controlled device and having the steps of: - converting an uncoded real number x into an LNS-coded integer x LNS by means of a predetermined conversion rule for a logarithmic number system, LNS, according to the equation x LNS = sgn x ⋅ 2 m + ld x ⋅ 2 n , where sgn(x) denotes a sign function of the uncoded real number x, ld|x| denotes a binary logarithm of the uncoded real number x, m denotes a first exponent and n denotes a second exponent, and - coding the LNS-coded integer x LNS into an arithmetically coded integer x c by means of arithmetic coding, wherein the arithmetic coding is designed and configured as ANBD coding or as DNB coding. - converting an uncoded real number x into an LNS-coded integer x LNS by means of a predetermined conversion rule for a logarithmic number system, LNS, according to the equation x LNS = sgn x ⋅ 2 m + ld x ⋅ 2 n , where sgn(x) denotes a sign function of the uncoded real number x, ld|x| denotes a binary logarithm of the uncoded real number x, m denotes a first exponent and n denotes a second exponent, and - coding the LNS-coded integer x LNS into an arithmetically coded integer x c by means of arithmetic coding, wherein the arithmetic coding is designed and configured as ANBD coding or as DNB coding.
A surgical navigation system comprising: a polyaxial bone screw , comprising: a threaded shaft for insertion in bone; and a head connected to the shaft , the head being rotatable about multiple axes relative to the shaft about a centre of rotation (210, D) of the head , the head being adapted to receive a bone rod ; a navigation probe for probing the position of the polyaxial bone screw when a bone rod is received in the head , the navigation probe having a probe axis ; wherein the head comprises a first mating surface adapted to engage a second mating surface of the navigation probe for probing the position of the bone screw when a bone rod is received in the head ; and wherein, the bone screw and the navigation probe are configured such that, when the first and second mating surfaces are engaged, at all rotational positions of the head relative to the shaft : the probe axis of the navigation probe has a fixed orientation relative to the head of the polyaxial bone screw , and the second mating surface of the navigation probe is at a constant distance from the centre of rotation (210, D) of the head . a polyaxial bone screw , comprising: a threaded shaft for insertion in bone; and a head connected to the shaft , the head being rotatable about multiple axes relative to the shaft about a centre of rotation (210, D) of the head , the head being adapted to receive a bone rod ; a threaded shaft for insertion in bone; and a head connected to the shaft , the head being rotatable about multiple axes relative to the shaft about a centre of rotation (210, D) of the head , the head being adapted to receive a bone rod ; a navigation probe for probing the position of the polyaxial bone screw when a bone rod is received in the head , the navigation probe having a probe axis ; wherein the head comprises a first mating surface adapted to engage a second mating surface of the navigation probe for probing the position of the bone screw when a bone rod is received in the head ; and wherein, the bone screw and the navigation probe are configured such that, when the first and second mating surfaces are engaged, at all rotational positions of the head relative to the shaft : the probe axis of the navigation probe has a fixed orientation relative to the head of the polyaxial bone screw , and the second mating surface of the navigation probe is at a constant distance from the centre of rotation (210, D) of the head . the probe axis of the navigation probe has a fixed orientation relative to the head of the polyaxial bone screw , and the second mating surface of the navigation probe is at a constant distance from the centre of rotation (210, D) of the head .
Overhead luggage compartment for an aircraft, comprising: a luggage compartment housing with two side parts , an upper part and a lower part , which enclose a receiving space for pieces of luggage, a door , a hinge device connected to the upper part and the door , respectively, the door by means of the hinge device being pivotable relative to the luggage compartment housing between an open position and a closed position, characterized in that the hinge device comprises a mounting clamp having an upper mounting leg and a lower mounting leg , the upper mounting leg being attached to the upper side of the upper part and the lower mounting leg being attached to the lower side of the upper part . a luggage compartment housing with two side parts , an upper part and a lower part , which enclose a receiving space for pieces of luggage, a door , a hinge device connected to the upper part and the door , respectively, the door by means of the hinge device being pivotable relative to the luggage compartment housing between an open position and a closed position, characterized in that the hinge device comprises a mounting clamp having an upper mounting leg and a lower mounting leg , the upper mounting leg being attached to the upper side of the upper part and the lower mounting leg being attached to the lower side of the upper part .
A primosome assembly protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein arginine, which is an amino acid corresponding to position 304 of SEQ ID NO: 3, is substituted with glutamine.
Combination comprising a first component (a) and a second component (b), wherein a) the first component comprises a Cas9 endonuclease capable of inducing a double stranded DNA break, fused with a first protein or protein domain, and b) the second component comprises an exonuclease selected from Exol, Exolll and mTREX2, fused to a second protein or protein domain, wherein the first and the second components are capable of heterodimerizing with each other via interaction of the first protein or protein domain and the second protein or protein domain wherein the first protein or protein domain and the second protein or protein domain are orthogonal protein partners P3 and P4 or N5 and N6, forming a coiled-coil structure, in particular a coiled-coil structure in parallel or antiparallel orientation. a) the first component comprises a Cas9 endonuclease capable of inducing a double stranded DNA break, fused with a first protein or protein domain, and b) the second component comprises an exonuclease selected from Exol, Exolll and mTREX2, fused to a second protein or protein domain, wherein the first and the second components are capable of heterodimerizing with each other via interaction of the first protein or protein domain and the second protein or protein domain wherein the first protein or protein domain and the second protein or protein domain are orthogonal protein partners P3 and P4 or N5 and N6, forming a coiled-coil structure, in particular a coiled-coil structure in parallel or antiparallel orientation.
A roller shutter box provided with an inspection cover consisting of at least part of a panel of the box and pivotable relative to the rest of the box between a closed position and an open position by means of an assembly of the cover and the box of the hinge type placed along a longitudinal joint edge of said cover , characterized in that it comprises at least one removable part for holding the cover in the closed position, attached to the box at the hinge and comprising elastic means for locking the cover in the closed position.
A program to be read and executed by a computer to allow the computer to execute a control method of an imaging apparatus for diagnosis, the imaging apparatus for diagnosis being configured to create an ultrasound tomographic image and an optical tomographic image inside an examination target object to which an imaging core moves by performing scanning using a probe that houses the imaging core provided with an ultrasound transceiver and an optical transceiver by moving the imaging core along an axial direction of the probe while rotating the imaging core, the control method comprising: a process of obtaining ultrasound line data oriented in a radial direction from a rotation center on the basis of a signal obtained by executing the scanning; a process of obtaining optical interference line data oriented in a radial direction from the rotation center on the basis of a signal obtained by executing the scanning; wherein the control method is characterized by further comprising: a process of identifying a line or a group of lines having the same feature out of each line data of the ultrasound tomographic image and the optical tomographic image; a process of determining segmentation positions for a bundle of lines corresponding to at least a single frame included in each tomographic image from each line data of the ultrasound tomographic image and the optical tomographic image with respect to the identified line or group of lines; and a process of creating a tomographic image from the determined bundle of lines. a process of obtaining ultrasound line data oriented in a radial direction from a rotation center on the basis of a signal obtained by executing the scanning; a process of obtaining optical interference line data oriented in a radial direction from the rotation center on the basis of a signal obtained by executing the scanning; wherein the control method is characterized by further comprising: a process of identifying a line or a group of lines having the same feature out of each line data of the ultrasound tomographic image and the optical tomographic image; a process of determining segmentation positions for a bundle of lines corresponding to at least a single frame included in each tomographic image from each line data of the ultrasound tomographic image and the optical tomographic image with respect to the identified line or group of lines; and a process of creating a tomographic image from the determined bundle of lines.
Locking device for rotatably and/or displaceably arranged components, whereby the locking device has a catching jaw and a brake rail and either the brake rail or the catching jaw is fixedly connected to the rotatably and/or displaceably arranged component, whereby the catching jaw has a brake surface , which faces the brake rail , with a brake profile running largely transversely to the direction of movement of the component and stands in operative connection with an actuator and can be moved by the latter against the brake rail , whereby the brake profile exerts a locking effect on the surface of the brake rail , and whereby the brake profile running largely transversely to the direction of movement of the component consists of a plurality of cutting edges with a wedge-shaped cross section arranged one behind the other in the direction of movement of the component that engage with the brake rail , characterised in that , the wedge-shaped cutting edges have a side running perpendicular to the brake surface of the catching jaw and that this side is directed oppositely to the movement of the component in the case of the catching jaw being fixed in relation to the movement of the component and points in the direction of movement of the component in the case of the catching jaw moving with the component.