mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a communication node (111-114; 121-123; 131-136) for transmitting traffic in a radio communication network, comprising: selecting a media access control, MAC, mode from a list of active MAC modes for the traffic, wherein an active MAC mode is a MAC mode to which radio resources have been assigned, wherein the active MAC mode is characterized by a MAC scheme, an algorithm for the MAC scheme and parameters used in the MAC scheme, wherein each MAC mode in the list of active MAC modes associates with respective resource blocks and is used to schedule the associated resource block, wherein the traffic is transmitted over resource scheduled by the selected MAC mode, characterised in that if there is no MAC mode suitable for the traffic within the list of active MAC modes, activating an inactive MAC mode that is suitable for the traffic and adding the activated MAC mode to the list of active MAC modes.
A water-soluble film having a thickness of 30 to 1,000 μm, said film containing at least one layer of solid material, said solid material comprising: • 25 to 88 wt.%, as based on the total weight of the solid material, free acid equivalent of aminopolycarboxylate; • 10 to 65 wt.%, as based on the total weight of the solid material, of one or more other water-soluble components; • 2 to 25 wt.%, as based on the total weight of the solid material, water. • 25 to 88 wt.%, as based on the total weight of the solid material, free acid equivalent of aminopolycarboxylate; • 10 to 65 wt.%, as based on the total weight of the solid material, of one or more other water-soluble components; • 2 to 25 wt.%, as based on the total weight of the solid material, water.
A method for detecting a target object, comprising: generating a signal by energizing a shaped coil with an AC signal; receiving at a sensor a signal reflected by a target in response to the signal from the shaped coil, characterized in that: the shaped coil has a varying width; the sensor includes a first sensing element aligned with the shaped coil at a first width and a second sensing element aligned with shaped coil at a second width; and the method further comprises selecting a first one of the first and second sensing elements based upon a ratio of coil width and a distance from the target to the shaped coil. generating a signal by energizing a shaped coil with an AC signal; receiving at a sensor a signal reflected by a target in response to the signal from the shaped coil, the shaped coil has a varying width; the sensor includes a first sensing element aligned with the shaped coil at a first width and a second sensing element aligned with shaped coil at a second width; and the method further comprises selecting a first one of the first and second sensing elements based upon a ratio of coil width and a distance from the target to the shaped coil.
A recombinant nucleic acid comprising a native glyceraldehyde-3-phosphate dehydrogenase (cggr) promoter from a Lactobacillus species, operably linked to one or more open reading frames heterologous to the promoter.
System with a worktop, with a hob and with at least one height adjustment apparatus, which is designed specifically for the hob, with a height adjustment unit, which is specifically designed to change a vertical position of the hob relative to a worktop, and with at least one fastening element which is specifically designed to fasten the height adjustment unit to the hob by means of a positive fit connection and/or non-positive fit connection, characterised in that the height adjustment unit has at least one support element, which is specifically designed, in at least one preassembled state, to rest at least partially on the worktop, namely on one level of the worktop, which level forms a lateral boundary of a mounting recess of the worktop.
A mixture of HMOs consisting essentially of: - a component A which is 3-FL or DFL, - a component B which is LNT, LNnT, LNFP-I or 2'-FL, - a component C, which is: LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and - a component D, which is: lactose when component A is 3-FL, or 2'-FL when component A is DFL, with the proviso that if component B is 2'-FL then component A is 3-FL. - a component A which is 3-FL or DFL, - a component B which is LNT, LNnT, LNFP-I or 2'-FL, - a component C, which is: LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and LNFP-II when component B is LNT, or LNFP-III when component B is LNnT, or LNDFH-I when component B is LNFP-I, or DFL when component B is 2'-FL, and - a component D, which is: lactose when component A is 3-FL, or 2'-FL when component A is DFL, with the proviso that if component B is 2'-FL then component A is 3-FL. lactose when component A is 3-FL, or 2'-FL when component A is DFL,
A computer-based method for creating a synthesized noise image (135, 302) for a digital image represented by a decoded clean sequence, wherein a combination of the synthesized noise image with the decoded clean sequence represents an image to be rendered for display or for color conversion prior to display, the method comprising: providing a plurality of noise block patterns; initializing a noise image that corresponds to the decoded clean sequence; generating a probability image comprising randomly generated probability values at each pixel of the probability image; comparing each probability value in the probability image with a threshold criterion; if the probability value satisfies the threshold criterion, selecting a noise block pattern from the plurality of noise block patterns, the noise block pattern having an anchor point; and if the probability value satisfies the threshold criterion, creating the synthesized noise image (135, 302) by placing the noise block pattern in the noise image such that the anchor point corresponds to a pixel in the probability image that meets the threshold criterion. providing a plurality of noise block patterns; initializing a noise image that corresponds to the decoded clean sequence; generating a probability image comprising randomly generated probability values at each pixel of the probability image; comparing each probability value in the probability image with a threshold criterion; if the probability value satisfies the threshold criterion, selecting a noise block pattern from the plurality of noise block patterns, the noise block pattern having an anchor point; and if the probability value satisfies the threshold criterion, creating the synthesized noise image (135, 302) by placing the noise block pattern in the noise image such that the anchor point corresponds to a pixel in the probability image that meets the threshold criterion.
An apparatus for controlling an electric vehicle, comprising: a speed sensor, for detecting a current vehicle speed of the vehicle and outputting a vehicle speed signal to a motor controller; an accelerator pedal depth sensor, for detecting a depth of the pedal travel of the accelerator pedal and outputting an accelerator pedal depth signal to the motor controller; and the motor controller, configured to receive the vehicle speed signal and the accelerator pedal depth signal, determine a current vehicle speed V, an actual accelerator pedal depth value Gain and a maximum output torque T m of the motor under the current vehicle speed V based on the received signals, determine an output torque T for controlling the motor according to a formula T = T m * f (Gain), and outputting a torque control signal corresponding to the output torque T; wherein, the formula T = T m * f (Gain) is such a function that lets the growth rate of the output torque T higher than that of the actual accelerator pedal depth value Gain when the actual accelerator pedal depth value Gain is at the initial stage of the whole accelerator pedal travel; lets the growth rate of the output torque T closed to that of the actual accelerator pedal depth value Gain when the actual accelerator pedal depth value Gain is at the middle stage of the whole accelerator pedal travel; and lets the growth rate of the output torque T lower than that of the actual accelerator pedal depth value Gain when the actual accelerator pedal depth value Gain is at the end stage of the whole accelerator pedal travel. a speed sensor, for detecting a current vehicle speed of the vehicle and outputting a vehicle speed signal to a motor controller; an accelerator pedal depth sensor, for detecting a depth of the pedal travel of the accelerator pedal and outputting an accelerator pedal depth signal to the motor controller; and the motor controller, configured to receive the vehicle speed signal and the accelerator pedal depth signal, determine a current vehicle speed V, an actual accelerator pedal depth value Gain and a maximum output torque T m of the motor under the current vehicle speed V based on the received signals, determine an output torque T for controlling the motor according to a formula T = T m * f (Gain), and outputting a torque control signal corresponding to the output torque T;
An external preparation comprising lactic acid salt of lidocaine and diclofenac or a salt thereof, wherein lactic acid salt of lidocaine is contained in an amount of 2-5 moles per mole of diclofenac or a salt thereof.
A method for diagnosis of ovarian cancer, comprising the steps of (i) determining the level of antibodies against epidermal growth factor receptor (EGFR) in a sample from a subject to be diagnosed, (ii) comparing the determined level in the sample to a control level derived from subjects without cancer; wherein a decreased level in the sample from the subject to be diagnosed as compared to the control level is indicative of ovarian cancer in the subject. (i) determining the level of antibodies against epidermal growth factor receptor (EGFR) in a sample from a subject to be diagnosed, (ii) comparing the determined level in the sample to a control level derived from subjects without cancer;
Spray gun, in particular a paint spray gun, comprising at least one main body, a nozzle (24, 50) having at least one material nozzle, an air cap (76, 78), a first air-conducting region and a second air-conducting region, wherein the first air-conducting region conducts air that is used to atomize material to be sprayed, and the second air-conducting region conducts air that is used to influence a spray jet, wherein the main body has at least one head region for attaching a nozzle arrangement, wherein the head region has at least one inner wall, one outer wall and one middle wall arranged therebetween, wherein the walls (10, 12, 14) are formed circumferentially and as a single piece with the main body, wherein the front end of the middle wall is set back along an axis relative to the front end of the outer wall, and wherein the first air-conducting region and the second air-conducting region are separated from one another, at least in regions, by the middle wall of the main body, a disk element arranged as a single piece on the material nozzle, at least one baffle disk (30, 31, 42) arranged, in particular nondetachably arranged, on the material nozzle, and by at least a part of the air cap (76, 78), characterized in that the inner wall, the middle wall and the outer wall are each circular and arranged concentrically with one another.
A method of capturing a sperm deoxyribonucleic acid from a biological sample, comprising: contacting a biological sample with a lysis solution, where the biological sample comprises at least a sperm cell or a sperm cell lysate, wherein the lysed biological sample solution comprises a protamine-DNA complex; applying at least a protamine-specific antibody to the lysed biological sample, wherein the protamine-specific antibody binds to the protamine-DNA complex of the lysed sperm cell to form an antibody- protamine- DNA complex; capturing the antibody-protamine-DNA complex; and optionally detecting the sperm DNA from the captured antibody-protamine-DNA complex, wherein the lysis solution comprises a detergent or a combination of detergent and reducing agent and a sequestration agent is applied after cell lysis to sequester detergent prior to applying the protamine-specific antibody to the lysed sperm cell. contacting a biological sample with a lysis solution, where the biological sample comprises at least a sperm cell or a sperm cell lysate, wherein the lysed biological sample solution comprises a protamine-DNA complex; applying at least a protamine-specific antibody to the lysed biological sample, wherein the protamine-specific antibody binds to the protamine-DNA complex of the lysed sperm cell to form an antibody- protamine- DNA complex; capturing the antibody-protamine-DNA complex; and optionally detecting the sperm DNA from the captured antibody-protamine-DNA complex,
A method for adjusting parameters of a bimodal hearing prosthesis that includes a first stimulator and a second stimulator, the method comprising: adjusting a control to shift an audiogram associated with the first stimulator; applying a prescription rule using the shifted audiogram to adjust a cross-over frequency that defines a first frequency range and a second frequency range, wherein the first stimulator is configured to apply stimulation signals in the first frequency range and the second stimulator is configured to apply stimulation signals in the second frequency range; and applying the prescription rule using the shifted audiogram to determine gain and maximum power output levels for the first frequency range associated with the first stimulator. adjusting a control to shift an audiogram associated with the first stimulator; applying a prescription rule using the shifted audiogram to adjust a cross-over frequency that defines a first frequency range and a second frequency range, wherein the first stimulator is configured to apply stimulation signals in the first frequency range and the second stimulator is configured to apply stimulation signals in the second frequency range; and applying the prescription rule using the shifted audiogram to determine gain and maximum power output levels for the first frequency range associated with the first stimulator.
Handstand training device (10, 100) comprising a base element (11, 111) and a support element, characterised in that the support element has a contact surface for an arm, that at least one pillar, on which the support element is arranged, is fastened to the base element (11, 111), and that a spacer being substantially orthogonal with respect to the pillar is provided between the pillar and the support element.
A system, comprising: a video processing device including at least one circuit, the video processing device being configured to: obtain an uncompressed video stream comprising a sequence of video frames; associate a marker with a particular video frame of the sequence of video frames to seek a specific portion in the uncompressed video stream; and generate an encoded reverse order video stream from the uncompressed video stream by: storing a portion of the sequence of video frames in a buffer; encoding the portion of the sequence of video frames in a reverse order using video encoder logic; and outputting the encoded portion of the sequence of video frames in the reverse order; wherein the marker persists through the encoding of the reverse order video stream such that the marker remains associated with the particular video frame in the encoded reverse order video stream. a video processing device including at least one circuit, the video processing device being configured to: obtain an uncompressed video stream comprising a sequence of video frames; associate a marker with a particular video frame of the sequence of video frames to seek a specific portion in the uncompressed video stream; and generate an encoded reverse order video stream from the uncompressed video stream by: storing a portion of the sequence of video frames in a buffer; encoding the portion of the sequence of video frames in a reverse order using video encoder logic; and outputting the encoded portion of the sequence of video frames in the reverse order; obtain an uncompressed video stream comprising a sequence of video frames; associate a marker with a particular video frame of the sequence of video frames to seek a specific portion in the uncompressed video stream; and generate an encoded reverse order video stream from the uncompressed video stream by: storing a portion of the sequence of video frames in a buffer; encoding the portion of the sequence of video frames in a reverse order using video encoder logic; and outputting the encoded portion of the sequence of video frames in the reverse order; storing a portion of the sequence of video frames in a buffer; encoding the portion of the sequence of video frames in a reverse order using video encoder logic; and outputting the encoded portion of the sequence of video frames in the reverse order;
A method performed by a transmitting node (110; 120) for performing data transmissions to at least one receiving node (120; 110) on a radio channel in a wireless communications network, the method comprising setting at least two contention window sizes, wherein the at least two contention window sizes are separately determined based on information associated with the least one receiving node (120; 110); deferring a first transmission of data to the at least one receiving node (120; 110) for a first period of observation of the radio channel determined by a first contention window size of the at least two contention window sizes; deferring at least one second transmission of data to the at least one receiving node (120; 110) for at least one second period of observation of the radio channel determined by at least a second contention window size of the at least two contention window sizes; and performing the first or the at least one second transmission of data to the at least one receiving node (120; 110) when an outcome of the first or the at least second periods of observation of the radio channel, respectively, is that the radio channel is idle; characterized in that the method further comprises determining, in a case that the transmitting node (110; 120) serves more than one receiving node and schedules the more than one receiving node during a single transmission opportunity, a joint contention window size, the joint contention window size being a function of contention window sizes of all scheduled receiving nodes; and using the determined joint contention window size in this case. setting at least two contention window sizes, wherein the at least two contention window sizes are separately determined based on information associated with the least one receiving node (120; 110); deferring a first transmission of data to the at least one receiving node (120; 110) for a first period of observation of the radio channel determined by a first contention window size of the at least two contention window sizes; deferring at least one second transmission of data to the at least one receiving node (120; 110) for at least one second period of observation of the radio channel determined by at least a second contention window size of the at least two contention window sizes; and performing the first or the at least one second transmission of data to the at least one receiving node (120; 110) when an outcome of the first or the at least second periods of observation of the radio channel, respectively, is that the radio channel is idle; determining, in a case that the transmitting node (110; 120) serves more than one receiving node and schedules the more than one receiving node during a single transmission opportunity, a joint contention window size, the joint contention window size being a function of contention window sizes of all scheduled receiving nodes; and using the determined joint contention window size in this case.
A clothes treating apparatus comprising: a reception unit configured to receive clothes; a discharge duct configured to guide air coming from an interior of the reception unit to an outside of the reception unit; a filter unit including a frame that is configured to be detachably inserted into the discharge duct and a filter provided in the frame that is configured to filter air; and an attachment unit configured to detachably couple the filter unit to the discharge duct, wherein the attachment unit includes: a body provided in the frame and configured to rotate to thereby allow coupling between the filter unit and the discharge duct, and a coupling part located at one side of the body and configured to be selectively coupled to the discharge duct through a through hole that is defined in the frame, characterised in that the body defines a body through hole passing through the body, the body through hole being configured to prevent foreign substances from remaining in a space between the body and the through hole, wherein the body through hole is adapted to discharge foreign substances, introduced into the space formed between the body and the through hole, to the outside of the space formed between the body and the through hole. a reception unit configured to receive clothes; a discharge duct configured to guide air coming from an interior of the reception unit to an outside of the reception unit; a filter unit including a frame that is configured to be detachably inserted into the discharge duct and a filter provided in the frame that is configured to filter air; and an attachment unit configured to detachably couple the filter unit to the discharge duct, wherein the attachment unit includes: a body provided in the frame and configured to rotate to thereby allow coupling between the filter unit and the discharge duct, and a coupling part located at one side of the body and configured to be selectively coupled to the discharge duct through a through hole that is defined in the frame, characterised in that the body defines a body through hole passing through the body, the body through hole being configured to prevent foreign substances from remaining in a space between the body and the through hole, wherein the body through hole is adapted to discharge foreign substances, introduced into the space formed between the body and the through hole, to the outside of the space formed between the body and the through hole. a body provided in the frame and configured to rotate to thereby allow coupling between the filter unit and the discharge duct, and a coupling part located at one side of the body and configured to be selectively coupled to the discharge duct through a through hole that is defined in the frame, characterised in that the body defines a body through hole passing through the body, the body through hole being configured to prevent foreign substances from remaining in a space between the body and the through hole, wherein the body through hole is adapted to discharge foreign substances, introduced into the space formed between the body and the through hole, to the outside of the space formed between the body and the through hole.
Carrying device for the carrying of loads by a user, having a back panel for fastening a load, and having at least one shoulder strap (3, 4) for resting the carrying device on the shoulder of a user, and also having a hip strap, characterized in that the back panel is connected via an at least partially closable textile receiving pocket (13, 29) to the hip strap and/or the shoulder strap, and in that the textile receiving pocket (13, 29) is formed on the hip strap and/or the shoulder strap, and a portion of the back panel is retained in an interchangeable manner in the receiving pocket (13, 29).