mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation of a network node to perform automated end-to-end analysis of Voice over Long Term Evolution, VoLTE, sessions, the method comprising: obtaining node and/or interface specific traces from a VoLTE network over which a VoLTE session is provided; correlating control and data plane messages across a plurality of nodes (18-34) and interfaces in the VoLTE network for the VoLTE sessions captured in the traces for a predefined time period, comprising: bundling control and data messages for each of a plurality of protocols that define the control and data plane messages for the plurality of nodes (18-34) and interfaces in the VoLTE network for each of the plurality of VoLTE sessions to thereby provide a message bundle for each of the plurality of VoLTE sessions for each of the plurality of protocols; and correlating the message bundles across the plurality of protocols for each of the plurality of VoLTE sessions to thereby provide data representative of end-to-end message flows for a plurality of VoLTE sessions; and configuring one or more nodes (18-34) in the VoLTE network based on the data representative of the end-to-end message flows for the plurality of VoLTE sessions. obtaining node and/or interface specific traces from a VoLTE network over which a VoLTE session is provided; correlating control and data plane messages across a plurality of nodes (18-34) and interfaces in the VoLTE network for the VoLTE sessions captured in the traces for a predefined time period, comprising: bundling control and data messages for each of a plurality of protocols that define the control and data plane messages for the plurality of nodes (18-34) and interfaces in the VoLTE network for each of the plurality of VoLTE sessions to thereby provide a message bundle for each of the plurality of VoLTE sessions for each of the plurality of protocols; and correlating the message bundles across the plurality of protocols for each of the plurality of VoLTE sessions to thereby provide data representative of end-to-end message flows for a plurality of VoLTE sessions; and bundling control and data messages for each of a plurality of protocols that define the control and data plane messages for the plurality of nodes (18-34) and interfaces in the VoLTE network for each of the plurality of VoLTE sessions to thereby provide a message bundle for each of the plurality of VoLTE sessions for each of the plurality of protocols; and correlating the message bundles across the plurality of protocols for each of the plurality of VoLTE sessions to thereby provide data representative of end-to-end message flows for a plurality of VoLTE sessions; and configuring one or more nodes (18-34) in the VoLTE network based on the data representative of the end-to-end message flows for the plurality of VoLTE sessions.
An image projection device comprising: a light source ; a control unit configured to generate an image light beam based on image data and control emission of the image light beam from the light source; a scanning unit that is attached to a frame to be worn on a face of a user and two-dimensionally scans the image light beam emitted from the light source; a light guide member that is attached to the frame and disposed in front of an eye of the user, is formed of a glass material through which a plurality of image light beams emitted from the scanning unit at different times pass, has a plurality of reflection surfaces that reflect the plurality of image light beams, converges the plurality of image light beams reflected by the plurality of reflection surfaces at a first convergence point in the eye of the user, and then irradiates a retina of the user with the converged image light beams; a first optical member that is attached to the frame and converges the plurality of image light beams emitted from the scanning unit at a second convergence point before the light guide member and then causes the plurality of image light beams to enter the light guide member; and a second optical member that is disposed at the second convergence point and causes each of the plurality of image light beams to enter a last reflection surface of the plurality of reflection surfaces, wherein the last reflection surface reflects the plurality of image light beams last among the plurality of reflection surfaces included in the light guide member, as diffusion light. a light source ; a control unit configured to generate an image light beam based on image data and control emission of the image light beam from the light source; a scanning unit that is attached to a frame to be worn on a face of a user and two-dimensionally scans the image light beam emitted from the light source; a light guide member that is attached to the frame and disposed in front of an eye of the user, is formed of a glass material through which a plurality of image light beams emitted from the scanning unit at different times pass, has a plurality of reflection surfaces that reflect the plurality of image light beams, converges the plurality of image light beams reflected by the plurality of reflection surfaces at a first convergence point in the eye of the user, and then irradiates a retina of the user with the converged image light beams; a first optical member that is attached to the frame and converges the plurality of image light beams emitted from the scanning unit at a second convergence point before the light guide member and then causes the plurality of image light beams to enter the light guide member; and a second optical member that is disposed at the second convergence point and causes each of the plurality of image light beams to enter a last reflection surface of the plurality of reflection surfaces, wherein the last reflection surface reflects the plurality of image light beams last among the plurality of reflection surfaces included in the light guide member, as diffusion light.
An information processing apparatus (1; 31) comprising: a control unit (13; 43) configured to: recognize a specific object from a first image captured by an imaging device (10; 40); display an augmented reality, AR, content on the first image when the specific object is recognized from the first image, the displayed AR content being associated with the specific object; control the imaging device (10; 40) to stop a focus adjustment when the specific object is recognized from the first image captured by the imaging device (10; 40) while the focus adjustment is in execution, the focus adjustment being performed at each first time interval (T1) by the imaging device ; obtain a second image captured by the imaging device (10; 40) which has been controlled to stop the focus adjustment; determine whether the specific object can be recognized in the second image; when the specific object is recognized from the second image, display the AR content on the second image and control the imaging device (10; 40) to continue to stop the focus adjustment; and when the specific object is not recognized from the second image captured, control the imaging device (10; 40) to restart the focus adjustment. recognize a specific object from a first image captured by an imaging device (10; 40); display an augmented reality, AR, content on the first image when the specific object is recognized from the first image, the displayed AR content being associated with the specific object; control the imaging device (10; 40) to stop a focus adjustment when the specific object is recognized from the first image captured by the imaging device (10; 40) while the focus adjustment is in execution, the focus adjustment being performed at each first time interval (T1) by the imaging device ; obtain a second image captured by the imaging device (10; 40) which has been controlled to stop the focus adjustment; determine whether the specific object can be recognized in the second image; when the specific object is recognized from the second image, display the AR content on the second image and control the imaging device (10; 40) to continue to stop the focus adjustment; and when the specific object is not recognized from the second image captured, control the imaging device (10; 40) to restart the focus adjustment.
Method for commissioning at least one sensor (10a-10d) that is part of a home automation system, the method comprising: - physically installing the at least one sensor (10a-10d) in a ceiling or a wall of a building, - programming the at least one sensor (10a-10d) by means of configuration software, the configuration software being located on a computer, laptop, tablet or smartphone, and - setting the at least one sensor (10a-10d) in addressing mode, for making it possible for the at least one sensor (10a-10d) to receive a unique identification in the home automation system in the form of a MAC address, characterized in that commissioning the at least one sensor (10a-10d) comprises: - after setting the at least one sensor in addressing mode, exposing the at least one sensor (10a-10d) to a light intensity change from a first light intensity into a second light intensity such that a predefined threshold value of the change is crossed; - upon crossing the threshold value of the change, sending a signal from the at least one sensor (10a-10d) to said configuration software, the signal being representative of the MAC address of the at least one sensor (10a-10d), and - identifying the at least one sensor (10a-10d) by its MAC address and correlating the MAC address with the physical location of the at least one sensor (10a-10d). - physically installing the at least one sensor (10a-10d) in a ceiling or a wall of a building, - programming the at least one sensor (10a-10d) by means of configuration software, the configuration software being located on a computer, laptop, tablet or smartphone, and - setting the at least one sensor (10a-10d) in addressing mode, for making it possible for the at least one sensor (10a-10d) to receive a unique identification in the home automation system in the form of a MAC address, - after setting the at least one sensor in addressing mode, exposing the at least one sensor (10a-10d) to a light intensity change from a first light intensity into a second light intensity such that a predefined threshold value of the change is crossed; - upon crossing the threshold value of the change, sending a signal from the at least one sensor (10a-10d) to said configuration software, the signal being representative of the MAC address of the at least one sensor (10a-10d), and - identifying the at least one sensor (10a-10d) by its MAC address and correlating the MAC address with the physical location of the at least one sensor (10a-10d).
A method of manufacturing a flexographic printing plate having a non-image area and an image area, the method comprising: an exposure step of imagewise exposing a photosensitive layer in a flexographic printing plate precursor having the photosensitive layer; a development step of performing development using the aqueous developer for a flexographic printing plate after the exposure step to form a non-image area and an image area; the aqueous developer including: a surfactant having a weight-average molecular weight of 1000 to 500000; and water; and a rinsing step of rinsing the non-image area and the image area with water after the development step, characterised in that the surfactant is a polymer having a repeating unit represented by any one of Formulae to , in Formulae to , R 1 represents a hydrogen atom or a methyl group, in Formulae and , R 2 represents any one of a hydrogen atom, a methyl group, or an ethyl group, and in Formulae , and , M represents any one of sodium, potassium, or calcium. an exposure step of imagewise exposing a photosensitive layer in a flexographic printing plate precursor having the photosensitive layer; a development step of performing development using the aqueous developer for a flexographic printing plate after the exposure step to form a non-image area and an image area; the aqueous developer including: a surfactant having a weight-average molecular weight of 1000 to 500000; and water; and a rinsing step of rinsing the non-image area and the image area with water after the development step, characterised in that the surfactant is a polymer having a repeating unit represented by any one of Formulae to , in Formulae to , R 1 represents a hydrogen atom or a methyl group, in Formulae and , R 2 represents any one of a hydrogen atom, a methyl group, or an ethyl group, and in Formulae , and , M represents any one of sodium, potassium, or calcium.
Household refrigeration appliance with a housing in which a receiving chamber for foodstuffs is formed, which is delimited by walls of an interior container of the household refrigeration appliance and with an additional compartment for foodstuffs formed in the receiving chamber having delimiting walls by means of which a receiving volume of the additional compartment is delimited on all sides and is completely delimited from the remaining volume of the receiving chamber , wherein the delimiting walls can be separated and joined non-destructively, thus enabling the additional compartment of the household refrigeration appliance to be reversibly assembled and disassembled in the receiving chamber , wherein the additional compartment has at least one further partition wall , with which the receiving volume of the additional compartment is separated into at least two partial volumes, wherein the partition wall has at least flow duct, with which cold air can be guided from outside of the additional compartment into the receiving volume of the additional compartment.
A computer program comprising instruction to cause microprocessors of a safety circuit of an elevator, wherein the safety circuit comprises a communications bus , nodes (A, B) connected to the communications bus and comprising sensors and/or actuators relating to the functionality of the safety circuit and being connected to the nodes to execute method steps in which: - a message is formed in a first node (A) comprising a microprocessor and a memory, in which the program to be executed is stored, - a testing field is added to the message for testing the operation of the safety circuit of the elevator - the message containing the aforementioned testing field is sent from the first node (A) to the communications bus in the safety circuit of the elevator - the message containing the aforementioned testing field is received in a second node (B) of the safety circuit from the communications bus - a functional nonconformance of the safety circuit of the elevator is identified on the basis of the testing field received in that the microprocessor in the second node (B) compares the received testing field with references (9A, 9B, 9 C) of a testing field as recorded in the memory of said second node (B), characterized in that : information about a degree of severity of the functional nonconformance indicated by the reference in question is recorded in connection with one or more references of the testing field in the memory of said second node (B). - a message is formed in a first node (A) comprising a microprocessor and a memory, in which the program to be executed is stored, - a testing field is added to the message for testing the operation of the safety circuit of the elevator - the message containing the aforementioned testing field is sent from the first node (A) to the communications bus in the safety circuit of the elevator - the message containing the aforementioned testing field is received in a second node (B) of the safety circuit from the communications bus - a functional nonconformance of the safety circuit of the elevator is identified on the basis of the testing field received in that the microprocessor in the second node (B) compares the received testing field with references (9A, 9B, 9 C) of a testing field as recorded in the memory of said second node (B),
A method of decoding audio content from a bitstream encoded in an encoder, the bitstream including audio content and classification information for the audio content, wherein the classification information is indicative of a content type of the audio content, wherein the classification information comprises one or more confidence values, each confidence value being associated with a respective content type and giving an indication of a likelihood that the audio content is of the respective content type, the method being performed by a decoder and comprising receiving the bitstream from the encoder; decoding the audio content and the classification information; selecting, based on the classification information, a post processing mode for performing post processing of the decoded audio content; and calculating one or more control weights for the post processing of the decoded audio content based on the classification information, wherein the control weights are calculated based on the confidence values. receiving the bitstream from the encoder; decoding the audio content and the classification information; selecting, based on the classification information, a post processing mode for performing post processing of the decoded audio content; and calculating one or more control weights for the post processing of the decoded audio content based on the classification information, wherein the control weights are calculated based on the confidence values.
A method of controlling a vehicle combination , the vehicle combination comprising a first vehicle unit , a second vehicle unit and an articulated coupling connecting the first and second vehicle units to each other, the method comprising the following steps: - determining (S1) a coupling force parameter (F xc , F yc , F zc , M xc ) of the articulated coupling based on a combination of motion related parameters obtained from the first and second vehicle units; - selecting (S2) an operational envelope for the vehicle combination based on the coupling force parameter; and - controlling (S3) the vehicle combination to operate within the operational envelope . - determining (S1) a coupling force parameter (F xc , F yc , F zc , M xc ) of the articulated coupling based on a combination of motion related parameters obtained from the first and second vehicle units; - selecting (S2) an operational envelope for the vehicle combination based on the coupling force parameter; and - controlling (S3) the vehicle combination to operate within the operational envelope .
An image processing device comprising : an alignment determination processing section configured to determine whether a number of corresponding points between captured panoramic image data and captured image data other than the captured panoramic image data is greater than or equal to a predetermined value, indicating that the captured other image data can be aligned with the captured panoramic image data such that a captured object in the captured panoramic image data is consistent with the same captured object in the captured other image data; and characterized by an image link processing section configured to add a universally unique identifier to link the captured other image data to the captured panoramic image data when the number of corresponding points is greater than or equal to the predetermined value, wherein: the captured other image data includes at least one of moving image data, the moving image data comprising a plurality of frames, and still image data being high-resolution image data captured at an angle of view of a telephoto as compared to a set angle of view for capturing a panoramic image of the captured panoramic image data. an alignment determination processing section configured to determine whether a number of corresponding points between captured panoramic image data and captured image data other than the captured panoramic image data is greater than or equal to a predetermined value, indicating that the captured other image data can be aligned with the captured panoramic image data such that a captured object in the captured panoramic image data is consistent with the same captured object in the captured other image data; and characterized by an image link processing section configured to add a universally unique identifier to link the captured other image data to the captured panoramic image data when the number of corresponding points is greater than or equal to the predetermined value, wherein: the captured other image data includes at least one of moving image data, the moving image data comprising a plurality of frames, and still image data being high-resolution image data captured at an angle of view of a telephoto as compared to a set angle of view for capturing a panoramic image of the captured panoramic image data.
A composition comprising a peptide consisting of the amino acid sequence: RRRLRFNRPFLVVIRRR (SEQ ID NO: 43); or RRRVKFNKPFVFLMIEQNTKRRR (SEQ ID NO: 38); or RRRVKFNKPFVFLMRRR (SEQ ID NO: 39); or RRRVRFNRPFLMIIRRR (SEQ ID NO: 47). RRRLRFNRPFLVVIRRR (SEQ ID NO: 43); or RRRVKFNKPFVFLMIEQNTKRRR (SEQ ID NO: 38); or RRRVKFNKPFVFLMRRR (SEQ ID NO: 39); or RRRVRFNRPFLMIIRRR (SEQ ID NO: 47).
A pre-sintered ceramic block for a dental restoration, wherein the pre-sintered ceramic block, comprises following components: SiO 2 : 55-85%wt, preferably 55-80%wt, more preferably 60-80%wt, most preferably 64-75%wt; Li 2 O: 10-25%wt, preferably 12-25%wt, more preferably 13-17%wt; ZrO 2 : 0-10%wt, preferably 0-8%wt, more preferably 0-6%wt, most preferably 0-4%wt; Al 2 O 3 : 0.3-8%wt, preferably 0.5-6%wt, more preferably 0.5-5%wt, most preferably 0.5-4%wt; La 2 O 3 : 0-7%wt, preferably 0-5%wt, more preferably 0-4.5%wt, most preferably 0-4%wt; ZnO: 0-10%wt, preferably 0-8%wt, more preferably 0-7%wt, most preferably 0.1-5%wt; K 2 O: 0.1-10%wt, preferably 0.1-9%wt, more preferably 0.1-7%wt, most preferably 0.5-4.5%wt; GeO 2 : 0.1-7%wt, preferably 0.1-6%wt, more preferably 0.3-5%wt, most preferably 0.5-4%wt; a nucleating agent: 0-10%wt, preferably 0-8%wt, more preferably 0.5-8%wt, most preferably 0.5-5%wt; a colorant: 0-10%wt, preferably 0-8%wt, more preferably 0-6%wt, most preferably 0.1-5%wt; and other additives: 0-15%wt, preferably 0-10%wt, more preferably 0-4%wt; wherein, the nucleating agent is one of or a combination of at least two of P 2 O 5 , TiO 2 , V 2 O 5 , Cr 2 O 3 , and Fe 2 O 3 ; the other additives are one of or a combination of at least two of B 2 O 3 , F, Na 2 O, BaO, SrO, CaO, and MgO; wherein the pre-sintered ceramic block does not contain a crystal phase and has a Vickers hardness of 0.5-2 GPa, and is opaque. wherein, the nucleating agent is one of or a combination of at least two of P 2 O 5 , TiO 2 , V 2 O 5 , Cr 2 O 3 , and Fe 2 O 3 ; the other additives are one of or a combination of at least two of B 2 O 3 , F, Na 2 O, BaO, SrO, CaO, and MgO; wherein the pre-sintered ceramic block does not contain a crystal phase and has a Vickers hardness of 0.5-2 GPa, and is opaque.
A conductive paste for a solar cell, the paste comprising a solids portion dispersed in an organic medium, the solids portion comprising electrically conductive metal, and glass frit, wherein the glass frit consists essentially of: 35 to 65 wt% TeO 2 ; 20 to 50 wt% Bi 2 O 3 ; 0.1 to 5 wt% Li 2 O; 0 to 5 wt% Na 2 O; 0.1 to 5 wt% ZnO; 0 to 3 wt% MoO 3 ; 0.5 to 15 wt% CeO 2 ; 0 to 3 wt% WO 3 ; 0 to 5 wt% BaO; 0 to 10 wt% P 2 O 5 ; 0 to 10 wt% of further components selected from the group consisting of GeO 2 , CaO, ZrO 2 , CuO, AgO and Al 2 O 3 ; and incidental impurities. 35 to 65 wt% TeO 2 ; 20 to 50 wt% Bi 2 O 3 ; 0.1 to 5 wt% Li 2 O; 0 to 5 wt% Na 2 O; 0.1 to 5 wt% ZnO; 0 to 3 wt% MoO 3 ; 0.5 to 15 wt% CeO 2 ; 0 to 3 wt% WO 3 ; 0 to 5 wt% BaO; 0 to 10 wt% P 2 O 5 ; 0 to 10 wt% of further components selected from the group consisting of GeO 2 , CaO, ZrO 2 , CuO, AgO and Al 2 O 3 ; and incidental impurities.