mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a decoded representation (512; 514: 630b) of an audio signal on the basis of an encoded audio stream (510; 610) representing spectral components of frequency bands of the audio signal and a multi-band noise intensity value , the method comprising: introducing noise into spectral components of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value; wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; and wherein the method comprises scaling a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information; wherein the method comprises selectively modifying a frequency band gain value of a given frequency band using a noise offset value if the given frequency band is quantized to zero. introducing noise into spectral components of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value; wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; and wherein the method comprises scaling a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information; wherein the method comprises selectively modifying a frequency band gain value of a given frequency band using a noise offset value if the given frequency band is quantized to zero.
A method , performed by a radio network device operative in a wireless communication network utilizing slot timing where a slot comprises a predetermined number of symbols, of transmitting data and Uplink Control Information, UCI, comprising: transmitting uplink data on a physical uplink shared channel aggregating two or more contiguous slots; in Downlink Control Information, DCI, receiving an indication in which of the aggregated slots to transmit UCI; and transmitting , in addition to the uplink data, UCI in the indicated slot. transmitting uplink data on a physical uplink shared channel aggregating two or more contiguous slots; in Downlink Control Information, DCI, receiving an indication in which of the aggregated slots to transmit UCI; and transmitting , in addition to the uplink data, UCI in the indicated slot.
A method for requesting, by a terminal , a system information block in a wireless communication system, the method comprising: transmitting (S902), to a base station , a first random access preamble corresponding to a system information block of interest; receiving (S904), from the base station , a random access response including a random access preamble identifier, wherein the random access preamble identifier indicates a second random access preamble; and determining (S906) that the random access response is valid for the terminal if the second random access preamble is included in the same preamble group as the first random access preamble. transmitting (S902), to a base station , a first random access preamble corresponding to a system information block of interest; receiving (S904), from the base station , a random access response including a random access preamble identifier, wherein the random access preamble identifier indicates a second random access preamble; and determining (S906) that the random access response is valid for the terminal if the second random access preamble is included in the same preamble group as the first random access preamble.
A computer implemented method for applying cosmetics to an area of skin, the method comprising: receiving , by one or more processors, a real-time image of the area of skin; generating , by the one or more processors, a registration layer containing a mapping between features of the real-time image and a graphical model of the area of skin; presenting , for display to a user, a control layer associated with the graphical model of the area of skin and overlaid on the real-time image according to the registration layer, the control layer including at least one indicator of a location on the area of skin where a reflectance modifying agent, i.e., RMA, should be applied, wherein the least one indicator included in the control layer is generated using an algorithm that detects blemishes on the area of skin extracted from the real-time image and determines RMA application amounts and locations to touch up the blemishes; determining , based on the real-time image, that the RMA has been applied to the location on the area of skin; and in response to determining that the RMA has been applied to the location on the area of skin, modifying the at least one indicator included in the control layer. receiving , by one or more processors, a real-time image of the area of skin; generating , by the one or more processors, a registration layer containing a mapping between features of the real-time image and a graphical model of the area of skin; presenting , for display to a user, a control layer associated with the graphical model of the area of skin and overlaid on the real-time image according to the registration layer, the control layer including at least one indicator of a location on the area of skin where a reflectance modifying agent, i.e., RMA, should be applied, wherein the least one indicator included in the control layer is generated using an algorithm that detects blemishes on the area of skin extracted from the real-time image and determines RMA application amounts and locations to touch up the blemishes; determining , based on the real-time image, that the RMA has been applied to the location on the area of skin; and in response to determining that the RMA has been applied to the location on the area of skin, modifying the at least one indicator included in the control layer.
A penetration monitoring system for a subterranean drill bit , comprising: an interface configured to receive penetration data from a drill bit operating within a borehole ; and a monitoring processor configured to generate drilling parameters for the drill bit based on the penetration data, wherein the processor is configured to determine penetration progress from the penetration data, characterised in that the penetration progress is provided as a thickness of a ledge created by the penetration of the drill bit in the sidewall of the borehole . an interface configured to receive penetration data from a drill bit operating within a borehole ; and a monitoring processor configured to generate drilling parameters for the drill bit based on the penetration data, wherein the processor is configured to determine penetration progress from the penetration data, characterised in that the penetration progress is provided as a thickness of a ledge created by the penetration of the drill bit in the sidewall of the borehole .
An elastic bollard for rack protection, comprising: a buffer part mounted on ground; a vertical pole coupled to the buffer part; a case part which includes a case upper part 11 having a through-insertion port formed on an upper surface thereof so that the vertical pole penetrates and protrudes to the outside, and characterised in that it is comprising a case lower part integrally coupled to a lower end of the case upper part, and forms an internal space to cover the buffer part ; an elastic part provided between a bottom surface of the case upper part and an upper surface of the buffer part; and a pedestal part on which the buffer part is mountable, wherein an external shock can be absorbed and alleviated, and when the vertical pole 50 is tilted due to an external force, the elastic part is compressed, and the elastic force of the compressed elastic part allows the vertical pole to restore to an upright state. a buffer part mounted on ground; a vertical pole coupled to the buffer part; a case part which includes a case upper part 11 having a through-insertion port formed on an upper surface thereof so that the vertical pole penetrates and protrudes to the outside, and characterised in that it is comprising a case lower part integrally coupled to a lower end of the case upper part, and forms an internal space to cover the buffer part ; an elastic part provided between a bottom surface of the case upper part and an upper surface of the buffer part; and a pedestal part on which the buffer part is mountable, wherein an external shock can be absorbed and alleviated, and when the vertical pole 50 is tilted due to an external force, the elastic part is compressed, and the elastic force of the compressed elastic part allows the vertical pole to restore to an upright state.
A surgical instrument , comprising: a displacement member configured to translate within the surgical instrument over a plurality of predefined zones; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor the position of the displacement member; a timer circuit coupled to the control circuit, the timer circuit configured to measure elapsed time; wherein the control circuit is configured to: receive, from the position sensor, a position of the displacement member in a current zone defined by a set displacement interval; and measure time at a set position of the displacement interval, wherein the measured time is defined as the time taken by the displacement member to traverse the displacement interval; compare the measured time to a predetermined time stored in a memory coupled to the control circuit; determine whether to adjust or maintain the command velocity based on the comparison; and set the command velocity of the displacement member for a subsequent zone based on the measured time in the current predefined zone. a displacement member configured to translate within the surgical instrument over a plurality of predefined zones; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor the position of the displacement member; a timer circuit coupled to the control circuit, the timer circuit configured to measure elapsed time; wherein the control circuit is configured to: receive, from the position sensor, a position of the displacement member in a current zone defined by a set displacement interval; and measure time at a set position of the displacement interval, wherein the measured time is defined as the time taken by the displacement member to traverse the displacement interval; compare the measured time to a predetermined time stored in a memory coupled to the control circuit; determine whether to adjust or maintain the command velocity based on the comparison; and set the command velocity of the displacement member for a subsequent zone based on the measured time in the current predefined zone. receive, from the position sensor, a position of the displacement member in a current zone defined by a set displacement interval; and measure time at a set position of the displacement interval, wherein the measured time is defined as the time taken by the displacement member to traverse the displacement interval; compare the measured time to a predetermined time stored in a memory coupled to the control circuit; determine whether to adjust or maintain the command velocity based on the comparison; and set the command velocity of the displacement member for a subsequent zone based on the measured time in the current predefined zone.
Method for fatigue-monitoring of a submarine power cable during off-shore jointing or reparation, the method comprising: a) determining a plurality of curvature values concerning a curvature of the submarine power cable at different points in time during the off-shore jointing or reparation, b) determining a plurality of strain ranges of the submarine power cable based on the plurality of curvature values, wherein in step b) the determining of each strain range involves using a mathematical model of the submarine power cable , and c) determining a fatigue damage of the submarine power cable based on the plurality of strain ranges, wherein step b) comprises determining a number of occurrences of each strain range, wherein in step c) the fatigue damage is determined based on the number of occurrences of each strain range, and wherein in step a) the determining involves obtaining measurements of a curvature of the submarine power cable from a curvature monitoring device monitoring the submarine power cable where the submarine power cable leaves the vessel chute . a) determining a plurality of curvature values concerning a curvature of the submarine power cable at different points in time during the off-shore jointing or reparation, b) determining a plurality of strain ranges of the submarine power cable based on the plurality of curvature values, wherein in step b) the determining of each strain range involves using a mathematical model of the submarine power cable , and c) determining a fatigue damage of the submarine power cable based on the plurality of strain ranges, wherein step b) comprises determining a number of occurrences of each strain range, wherein in step c) the fatigue damage is determined based on the number of occurrences of each strain range, and wherein in step a) the determining involves obtaining measurements of a curvature of the submarine power cable from a curvature monitoring device monitoring the submarine power cable where the submarine power cable leaves the vessel chute . wherein step b) comprises determining a number of occurrences of each strain range, wherein in step c) the fatigue damage is determined based on the number of occurrences of each strain range, and wherein in step a) the determining involves obtaining measurements of a curvature of the submarine power cable from a curvature monitoring device monitoring the submarine power cable where the submarine power cable leaves the vessel chute .
A system for cleaning fluid, comprising: - an air channel comprising an intake and an outlet ; - a receptacle configured to receive a filter , so that the filter when installed in the receptacle is in the stream of an airflow when air is flowing through the air channel; - an airflow control device for influencing a filter airflow; - a controlling circuit for controlling the airflow control device in accordance with predetermined control parameters; - an electronic processing circuit configured to: determine a filter usage value of the filter and store the filter usage value to historical data in a memory ; and by a microprocessor and based on the historical data, generate adjusted control parameters to drive the airflow control device, wherein the adjusted control parameters are to reduce or increase an average loading rate of the filter such that a pre-determined filter load is achieved within a pre-determined tolerance of a pre-determined next maintenance time. - an air channel comprising an intake and an outlet ; - a receptacle configured to receive a filter , so that the filter when installed in the receptacle is in the stream of an airflow when air is flowing through the air channel; - an airflow control device for influencing a filter airflow; - a controlling circuit for controlling the airflow control device in accordance with predetermined control parameters; - an electronic processing circuit configured to: determine a filter usage value of the filter and store the filter usage value to historical data in a memory ; and by a microprocessor and based on the historical data, generate adjusted control parameters to drive the airflow control device,
A wireless local area network, WLAN, node adapted to be comprised in an integrated wireless communications network comprising a WLAN and a cellular communications network, the WLAN node comprising: a receiving module adapted to receive traffic data signals from a wireless device; a security module adapted to process the received traffic data signals and apply a first security protocol to a first WLAN traffic data signal received from the wireless device and a second security protocol to a second WLAN traffic data signal received from the wireless device; and a routing module adapted to route the first WLAN traffic data signal to a node of the cellular communications network and route the second WLAN traffic data signal relating to local breakout traffic to a node of the WLAN, wherein the security module is adapted to concurrently process the first WLAN traffic data signal and second WLAN traffic data signal from the same wireless device, and the routing module is adapted to concurrently route the first WLAN traffic data signal and the second WLAN traffic data signal to their respective nodes by using different frequencies for the first WLAN traffic data signal and the second WLAN traffic data signal. a receiving module adapted to receive traffic data signals from a wireless device; a security module adapted to process the received traffic data signals and apply a first security protocol to a first WLAN traffic data signal received from the wireless device and a second security protocol to a second WLAN traffic data signal received from the wireless device; and a routing module adapted to route the first WLAN traffic data signal to a node of the cellular communications network and route the second WLAN traffic data signal relating to local breakout traffic to a node of the WLAN, wherein the security module is adapted to concurrently process the first WLAN traffic data signal and second WLAN traffic data signal from the same wireless device, and the routing module is adapted to concurrently route the first WLAN traffic data signal and the second WLAN traffic data signal to their respective nodes by using different frequencies for the first WLAN traffic data signal and the second WLAN traffic data signal.
A flexible tank for transporting fluids in a transportation container, said flexible tank defining a tank volume for containing a fluid, said flexible tank comprising at least one mixing member enclosing a fluid pathway extending across an interior surface of said flexible tank , said flexible tank further comprising at least one inlet valve configured to allow the passage of fluid from outside said flexible tank into said fluid pathway, wherein said at least one mixing member further comprises at least one aperture such that said inlet valve is in fluid communication with said tank volume via said fluid pathway, wherein said at least one mixing member reduces in cross sectional area along its longitudinal axis, characterised in that said at least one mixing member is conically or frustoconically shaped. said flexible tank comprising at least one mixing member enclosing a fluid pathway extending across an interior surface of said flexible tank , said flexible tank further comprising at least one inlet valve configured to allow the passage of fluid from outside said flexible tank into said fluid pathway, wherein said at least one mixing member further comprises at least one aperture such that said inlet valve is in fluid communication with said tank volume via said fluid pathway, wherein said at least one mixing member reduces in cross sectional area along its longitudinal axis, characterised in that said at least one mixing member is conically or frustoconically shaped.
Rigid propulsion wing for a travelling vehicle, comprising at least one first section and one second section , a first end , formed by one of the ends of said first section , and a second end , formed by one of the ends of said second section , said ends each comprising attachment means for reversibly connecting to said travelling vehicle, said first section and said second section being movable with respect to each other by means of articulating means such that said propulsion wing assumes, and moves from, at least a first deployed position to a second deployed position, and vice versa, in which deployed positions said first section and said second section are arranged, substantially vertically, in the extension of one another, and in which said first end , or respectively said second end , are reversibly connected to said travelling vehicle by means of the attachment means thereof.
An additive hood for humidifying air entering into a tracheostomy valve , the additive hood being configured to be attached at an inlet of the tracheostomy valve and comprises: a container having a front wall and a rear wall , the rear wall being configured to face the inlet of the tracheostomy valve ; the container comprising: a material enclosed by the front wall , and the rear wall ; characterized in that the material comprises at least a center through channel , extending through the front wall , extending pass the material and extending through the rear wall , allowing exterior air to flow through the container to the tracheostomy valve during inhalation, wherein the material is configurable or configured to humidify air flowing through the channel , and the material has a first end facing the front wall and a second end facing the rear wall , which first end is located at a distance from the front wall and/or the second end is located at a distance from the rear wall enabling the air to flow through the space between the front wall and the material and/or the space between the rear wall and the material. a front wall and a rear wall , the rear wall being configured to face the inlet of the tracheostomy valve ; a material enclosed by the front wall , and the rear wall ; characterized in that the material comprises at least a center through channel , extending through the front wall , extending pass the material and extending through the rear wall , allowing exterior air to flow through the container to the tracheostomy valve during inhalation,
Cell containing a reagent solution at least consisting of - potassium dichromate (K 2 Cr 2 O 7 ) - silver sulfate (Ag 2 SO 4 ) - water - sulfuric acid characterised in that the sulfuric acid content is between 20 and 50% (w/w), the potassium dichromate content is between 0.1 and 2.5% (w/w) and the silver sulfate content is between 0.1 and 2% (w/w). - potassium dichromate (K 2 Cr 2 O 7 ) - silver sulfate (Ag 2 SO 4 ) - water - sulfuric acid