mhurhangee/patent-ind-claim-en huggingface dataset:
Treatment method for an item of metal rolling stock , wherein the rolling stock is a flat hot item of rolling stock which extends in a longitudinal direction, in a width direction and in a thickness direction, - wherein at a treatment time, the rolling stock is acted on at least substantially in the thickness direction by means of a treatment device , - wherein at least for a period before the treatment time, the temporal development of a thermal state (Z) of the rolling stock is modelled by means of a model of the rolling stock by iteratively solving at least one heat conduction equation, - wherein control of the treatment device , taken as a basis for the treatment device to act on the rolling stock , is effected depending on that thermal state (Z) which is determined by means of the model for the rolling stock for the treatment time, - wherein the density (p) of the rolling stock influences the heat conduction equation, - wherein the density (p) is dependent on the respective thermal state (Z) of the rolling stock , characterized in that an allowance is made for the dependence of the density (p) of the rolling stock on the respective thermal state (Z) of the rolling stock in the heat conduction equation by a factor (a, a') of the form a = xL ⋅ xB xD ⋅ ρ 0 or a ′ = 1 xD 2 ⋅ ρ , wherein p and ρ 0 are densities (p, ρ 0 ) of the rolling stock related to a current and a predetermined thermal state (Z, Z0) of the rolling stock and the coefficients xL, xB and xD arise as a quotient of an extent (L, B, D, L 0 , B 0 , D 0 ) of the rolling stock in the longitudinal direction, in the width direction and in the thickness direction in the case of the respective and the predetermined thermal state (Z, Z0) of the rolling stock . - wherein at a treatment time, the rolling stock is acted on at least substantially in the thickness direction by means of a treatment device , - wherein at least for a period before the treatment time, the temporal development of a thermal state (Z) of the rolling stock is modelled by means of a model of the rolling stock by iteratively solving at least one heat conduction equation, - wherein control of the treatment device , taken as a basis for the treatment device to act on the rolling stock , is effected depending on that thermal state (Z) which is determined by means of the model for the rolling stock for the treatment time, - wherein the density (p) of the rolling stock influences the heat conduction equation, - wherein the density (p) is dependent on the respective thermal state (Z) of the rolling stock ,
An oil lubricated helium compressor system suitable for being located in an indoor environment where the ambient air temperature is between 15°C and 30°C, the compressor system comprising: a compressor , a separator internal or external to the compressor that is configured to receive a mixture of compressed helium and oil and discharges helium and oil through separate ports, a water cooled after-cooler for effecting cooling of the helium and oil, an air cooled after-cooler for effecting cooling of the helium and oil, the air cooled after-cooler comprising a heat exchanger and a fan , the water cooled after-cooler and the air cooled after-cooler connected in series: a first line extending from the helium discharge port and passing through the water cooled after-cooler and the air cooled after-cooler the helium being, during operation of the compressor system, cooled by one or both the water cooled after-cooler and the air cooled after-cooler and a second line extending from the oil discharge port and passing through the water cooled after-cooler and the air cooled after-cooler the oil, during operation of the of the compressor system, cooled by one or both the water cooled after-cooler and the air cooled after-cooler ; wherein the first line and the second line are separate. a compressor , a separator internal or external to the compressor that is configured to receive a mixture of compressed helium and oil and discharges helium and oil through separate ports, a water cooled after-cooler for effecting cooling of the helium and oil, an air cooled after-cooler for effecting cooling of the helium and oil, the air cooled after-cooler comprising a heat exchanger and a fan , the water cooled after-cooler and the air cooled after-cooler connected in series: a first line extending from the helium discharge port and passing through the water cooled after-cooler and the air cooled after-cooler the helium being, during operation of the compressor system, cooled by one or both the water cooled after-cooler and the air cooled after-cooler and a second line extending from the oil discharge port and passing through the water cooled after-cooler and the air cooled after-cooler the oil, during operation of the of the compressor system, cooled by one or both the water cooled after-cooler and the air cooled after-cooler ; wherein the first line and the second line are separate.
A wearable defibrillator comprising a computer readable medium storing instructions for causing a computing system to perform operations comprising: receiving , from two or more ECG leads , an ECG signal of a patient ; generating at least two generally orthogonal ECG vectors based on the ECG signal; processing the at least two generally orthogonal ECG vectors to determine a loop trajectory of at least a portion of the ECG signal; identifying a trajectory bifurcation by comparing the loop trajectory to a control loop trajectory of the same patient for a plurality of cardiac cycles, the control loop trajectory comprising a previously stored control loop trajectory based on an averaging of at least two prior loop trajectories; and determining an indicator of a cardiac event based on the trajectory bifurcation. receiving , from two or more ECG leads , an ECG signal of a patient ; generating at least two generally orthogonal ECG vectors based on the ECG signal; processing the at least two generally orthogonal ECG vectors to determine a loop trajectory of at least a portion of the ECG signal; identifying a trajectory bifurcation by comparing the loop trajectory to a control loop trajectory of the same patient for a plurality of cardiac cycles, the control loop trajectory comprising a previously stored control loop trajectory based on an averaging of at least two prior loop trajectories; and determining an indicator of a cardiac event based on the trajectory bifurcation.
A transdermal therapeutic system comprising a solid dispersion comprising a dispersing agent and a dispersed phase, said dispersed phase comprising rotigotine and polyvinylpyrrolidone, wherein the weight ratio of rotigotine to polyvinylpyrrolidone is 9:4, rotigotine is rotigotine free base, and the transdermal therapeutic system is prepared by a manufacturing process, which comprises preparing the solid dispersion, coating, drying and laminating to get the bulk product and converting the laminate into patch units via cutting and packaging.
A bracket clamp for attaching elongated products, such as in particular cables , at a profile rail, in particular a C-type profile rail , including an approximately U-shaped body, between the legs of the U-shape a pressure trough adjustable by means of a set screw penetrating the base of the U-shape being disposed, said pressure trough being able to partially surround the elongated product and to press it against a counter trough to be placed on the profile rail , the free end of the legs of the approximately U-shaped body having a hook shape and being able to engage behind the angled free ends of the legs of the profile rail , characterized by that the counter trough includes, on its side facing away from the elongated product, in particular the cable , a profile , by means of which the counter trough can be connected or is connected to the profile of another identical counter trough so to form a double through , the counter trough including a holding member laterally projecting and extending approximately in parallel to the longitudinal direction of the counter trough , which holding member surrounds a leg of the approximately U-shaped body of the bracket clamp and after reaching the intended mounting position engages behind this leg with a hook-type projection formed at the free end of the holding member , the leg of the approximately U-shaped body of the bracket clamp being disposed, in this intended mounting position, between the hook-type projection of the holding member and a section projecting from the counter trough and forming a transition section from the counter trough to the holding member .
A peptide consisting of the amino acid sequence according to SEQ ID No. 6 for use in the treatment of cancer.
A peptide comprising an amino acid sequence represented by SEQ ID NO: 1 and having an amino acid length of 6 or more and 13 or less.
An apparatus, comprising: a processing element configured to cause a wireless device to: attach to a serving cell associated with a cellular network; determine a preferred first uplink communication bandwidth mode from a plurality of uplink communication bandwidth modes, wherein the preferred first uplink communication bandwidth mode comprises a first maximum uplink bandwidth for a physical uplink shared channel, PUSCH, to the serving cell, wherein at least one of the plurality of uplink communication bandwidth modes has a maximum uplink communication bandwidth of 1.4MHz; determine a preferred first downlink communication bandwidth mode from a plurality of downlink communication bandwidth modes, wherein the preferred first downlink communication bandwidth mode comprises a first maximum downlink bandwidth for a physical downlink shared channel, PDSCH, to the serving cell, wherein at least one of the plurality of possible downlink communication bandwidth modes has a maximum downlink communication bandwidth of 1.4MHz; transmit a radio resource control, RRC, message to the serving cell, wherein the RRC message comprises a first indication of the preferred first uplink communication bandwidth mode and a second indication of the preferred first downlink bandwidth mode; receive an RRC connection reconfiguration message configuring and confirming the preferred bandwidth modes in response to the first and second indications; and communicate data with the serving cell using the preferred first uplink bandwidth and the preferred first downlink bandwidth. attach to a serving cell associated with a cellular network; determine a preferred first uplink communication bandwidth mode from a plurality of uplink communication bandwidth modes, wherein the preferred first uplink communication bandwidth mode comprises a first maximum uplink bandwidth for a physical uplink shared channel, PUSCH, to the serving cell, wherein at least one of the plurality of uplink communication bandwidth modes has a maximum uplink communication bandwidth of 1.4MHz; determine a preferred first downlink communication bandwidth mode from a plurality of downlink communication bandwidth modes, wherein the preferred first downlink communication bandwidth mode comprises a first maximum downlink bandwidth for a physical downlink shared channel, PDSCH, to the serving cell, wherein at least one of the plurality of possible downlink communication bandwidth modes has a maximum downlink communication bandwidth of 1.4MHz; transmit a radio resource control, RRC, message to the serving cell, wherein the RRC message comprises a first indication of the preferred first uplink communication bandwidth mode and a second indication of the preferred first downlink bandwidth mode; receive an RRC connection reconfiguration message configuring and confirming the preferred bandwidth modes in response to the first and second indications; and communicate data with the serving cell using the preferred first uplink bandwidth and the preferred first downlink bandwidth.
A catheter apparatus comprising: a telescope section including telescoped inner and outer tubular catheter members; a sheath having a proximal end anchored to a distal end of one of said outer or inner tubular catheter member; and an elongated flexible drive member coaxially extending through said outer tubular catheter member and being proximally and distally movable through said sheath, said elongated flexible drive member having a distal portion disposed within said sheath, and a second portion extending proximally beyond said sheath and having a stiffness greater than that of said distal portion of said elongated flexible drive member so as to be self-supporting during operation within the telescope section when the inner tubular catheter member is proximally moved away from a retracted position toward or completely to an extended position. a telescope section including telescoped inner and outer tubular catheter members; a sheath having a proximal end anchored to a distal end of one of said outer or inner tubular catheter member; and an elongated flexible drive member coaxially extending through said outer tubular catheter member and being proximally and distally movable through said sheath, said elongated flexible drive member having a distal portion disposed within said sheath, and a second portion extending proximally beyond said sheath and having a stiffness greater than that of said distal portion of said elongated flexible drive member so as to be self-supporting during operation within the telescope section when the inner tubular catheter member is proximally moved away from a retracted position toward or completely to an extended position.
A method of transmitting data between network devices over a non-deterministic network with a multiple channel access method, wherein the non-deterministic network comprises a plurality of network devices , comprising the steps of: - synchronising clocks of individual network devices of the plurality of network devices with each other , - dividing time available for transmitting the data into timeslots , - designating respective pairs of consecutive timeslots to the individual network devices of the plurality of network devices , wherein an individual network device transfers data only during the respective pairs of timeslots designated to it, - reserving a first timeslot of the pairs of timeslots designated to a network device of the plurality of network devices for transmitting the data once and reserving the second timeslot of the pair of timeslots designated to the network device for transmitting the data a second time, and - evaluating, whether a network device of the plurality of network devices shall retransmit data, which it has already transmitted during the first timeslot of the pair of timeslots, within the second timeslot of the pair of timeslots . - synchronising clocks of individual network devices of the plurality of network devices with each other , - dividing time available for transmitting the data into timeslots , - designating respective pairs of consecutive timeslots to the individual network devices of the plurality of network devices , wherein an individual network device transfers data only during the respective pairs of timeslots designated to it, - reserving a first timeslot of the pairs of timeslots designated to a network device of the plurality of network devices for transmitting the data once and reserving the second timeslot of the pair of timeslots designated to the network device for transmitting the data a second time, and - evaluating, whether a network device of the plurality of network devices shall retransmit data, which it has already transmitted during the first timeslot of the pair of timeslots, within the second timeslot of the pair of timeslots .
A method of processing video data, comprising: Obtaining 360-degree video data captured by an omnidirectional camera, wherein a video frame of the 360-degree video data includes an image of a scene, and wherein, in the image, the scene is warped into a circular region of the image; obtaining parameters associated with the omnidirectional camera, wherein the parameters include a quantity of one or more circular regions in the image, a value indicating a quantity of areas within the image that include unusable pixels, and for each of the areas that include unusable pixels a position and size of the respective area within the image that includes unusable pixels; and wherein obtaining the parameters comprises obtaining, for each of the one or more circular regions: a horizontal coordinate of a center of the circular region, a vertical coordinate of a center of the circular region a full radius value, a frame radius value, a scene radius value, a rotation of the scene within the circular region, a flip value, a scaling value, a field-of-view value, a quantity of compression curve points, and a list of pairs of compression_curve_x and compression_curve_y that represent the geometric compression curve in relation to the part of the sphere scene that was captured; encoding the 360-degree video data, wherein encoding includes encoding the circular region of the image; and generating encoded video data, wherein the encoded video data includes the encoded 360-degree video data and the parameters associated with the omnidirectional camera. Obtaining 360-degree video data captured by an omnidirectional camera, wherein a video frame of the 360-degree video data includes an image of a scene, and wherein, in the image, the scene is warped into a circular region of the image; obtaining parameters associated with the omnidirectional camera, wherein the parameters include a quantity of one or more circular regions in the image, a value indicating a quantity of areas within the image that include unusable pixels, and for each of the areas that include unusable pixels a position and size of the respective area within the image that includes unusable pixels; and wherein obtaining the parameters comprises obtaining, for each of the one or more circular regions: a horizontal coordinate of a center of the circular region, a vertical coordinate of a center of the circular region a full radius value, a frame radius value, a scene radius value, a rotation of the scene within the circular region, a flip value, a scaling value, a field-of-view value, a quantity of compression curve points, and a list of pairs of compression_curve_x and compression_curve_y that represent the geometric compression curve in relation to the part of the sphere scene that was captured; encoding the 360-degree video data, wherein encoding includes encoding the circular region of the image; and generating encoded video data, wherein the encoded video data includes the encoded 360-degree video data and the parameters associated with the omnidirectional camera.
Key module for a keyboard , wherein the key module comprises: a first wing element and a second wing element for guiding a movement of the key module upon actuation, wherein each wing element comprises a bar , a first arm and a second arm , wherein the arms extend away from the bar , wherein a mounting portion is formed on the bar , wherein a first bearing portion for bearing the wing element is formed on the first arm , wherein a second bearing portion for bearing the wing element is formed on the second arm , wherein the first wing element and the second wing element are mechanically coupleable to each other; at least one spring element for providing a reset force upon actuation of the key module , wherein the at least one spring element is mountable to the mounting portion of the first wing element and the mounting portion of the second wing element , wherein the at least one spring element is formed as a tension spring; a support element for supporting the wing elements , wherein a plurality of accommodating portions for accommodating the bearing portions of the wing elements are formed in the support element ; characterised in that the key module comprises: at least one cam for deforming the at least one spring element in an actuated estate of the key module . a first wing element and a second wing element for guiding a movement of the key module upon actuation, wherein each wing element comprises a bar , a first arm and a second arm , wherein the arms extend away from the bar , wherein a mounting portion is formed on the bar , wherein a first bearing portion for bearing the wing element is formed on the first arm , wherein a second bearing portion for bearing the wing element is formed on the second arm , wherein the first wing element and the second wing element are mechanically coupleable to each other; at least one spring element for providing a reset force upon actuation of the key module , wherein the at least one spring element is mountable to the mounting portion of the first wing element and the mounting portion of the second wing element , wherein the at least one spring element is formed as a tension spring; a support element for supporting the wing elements , wherein a plurality of accommodating portions for accommodating the bearing portions of the wing elements are formed in the support element ; characterised in that the key module comprises: at least one cam for deforming the at least one spring element in an actuated estate of the key module .
Free flow turbine having a tubular turbine shell, a turbine which is arranged inside the turbine shell and drives a generator, wherein the turbine shell has an inflow opening bounded by an inlet edge , an inlet funnel and a diffuser, wherein a guide apparatus is mounted upstream of the inflow opening, which consists of a plurality of guide vanes which each have a leading edge , characterised in that the leading edges of the guide vanes extend substantially along a conical envelope from a tip to the inlet edge , and in that the guide vanes have a pitched end section on their downstream sides.
A computer-implemented method for providing a video without restricted audio, the method comprising: receiving a video comprising at least two audio layers; identifying a first audio layer comprising a restricted audio element ; identifying a second audio layer comprising a speech element ; based on the first audio layer comprising the restricted audio element , muting the first audio layer and the second audio layer of a portion of the video comprising the restricted audio element of the first audio layer when the video is provided for display at a user interface; the method further characterized by initiating a speech synthesizer to generate audible speech corresponding to the speech element of the second audio layer and providing the audible speech during the portion of the video in which the first audio layer and the second audio layer are muted. receiving a video comprising at least two audio layers; identifying a first audio layer comprising a restricted audio element ; identifying a second audio layer comprising a speech element ; based on the first audio layer comprising the restricted audio element , muting the first audio layer and the second audio layer of a portion of the video comprising the restricted audio element of the first audio layer when the video is provided for display at a user interface; the method further characterized by initiating a speech synthesizer to generate audible speech corresponding to the speech element of the second audio layer and providing the audible speech during the portion of the video in which the first audio layer and the second audio layer are muted.