mhurhangee/ep-ind-claims huggingface dataset:
A bladder system for an article of footwear, comprising: a sole structure; an outer bladder including an interior cavity; a valve member disposed inside the interior cavity, the valve member being used to inflate the interior cavity; wherein the valve member includes a first valve configured to receive fluid from an external pump; wherein outer surfaces of the valve member are attached to the upper and lower layers of the outer bladder such that the valve member divides the interior cavity into a first inflation chamber in the forefoot portion of the sole structure and a second inflation chamber in the heel portion of the sole structure; wherein the valve member includes a second valve in fluid communication with the first valve; wherein in a first position the second valve provides fluid communication between the first valve and the first inflation chamber and prevents fluid communication between the first valve and the second inflation chamber; wherein in a second position the second valve provides fluid communication between the first valve and the second inflation chamber and prevents fluid communication between the first valve and the first inflation chamber; and wherein the first inflation chamber and the second inflation chamber can be inflated to different pressures. a sole structure; an outer bladder including an interior cavity; a valve member disposed inside the interior cavity, the valve member being used to inflate the interior cavity; wherein the valve member includes a first valve configured to receive fluid from an external pump; wherein outer surfaces of the valve member are attached to the upper and lower layers of the outer bladder such that the valve member divides the interior cavity into a first inflation chamber in the forefoot portion of the sole structure and a second inflation chamber in the heel portion of the sole structure; wherein the valve member includes a second valve in fluid communication with the first valve; wherein in a first position the second valve provides fluid communication between the first valve and the first inflation chamber and prevents fluid communication between the first valve and the second inflation chamber; wherein in a second position the second valve provides fluid communication between the first valve and the second inflation chamber and prevents fluid communication between the first valve and the first inflation chamber; and wherein the first inflation chamber and the second inflation chamber can be inflated to different pressures.
An electret web comprising: a thermoplastic resin; and at least one charge-enhancing additive comprising a mercapto-benzothiazole salt or mercapto-benzoxazole salt with the general structure of Formula 2: wherein the Y is an O or S group; the groups R 1, R 2, R 3, and R 4 independently comprise a hydrogen atom, an alkyl, an aryl, an alkoxy, an alkanoyl, or a substituted alkyl group; M is a metal ion with a valence of n; and n is an integer of 1,2, or 3. a thermoplastic resin; and at least one charge-enhancing additive comprising a mercapto-benzothiazole salt or mercapto-benzoxazole salt with the general structure of Formula 2: wherein the Y is an O or S group; the groups R 1, R 2, R 3, and R 4 independently comprise a hydrogen atom, an alkyl, an aryl, an alkoxy, an alkanoyl, or a substituted alkyl group; M is a metal ion with a valence of n; and n is an integer of 1,2, or 3.
An imidazole derivative or a pharmaceutically acceptable salt thereof, wherein the imidazole derivative is selected from the group consisting of the compounds represented by Formulas 43, 44, 45, 47, 48, 100, 102, 105 to 107, 117 to 123, 181 to 185, 187, 190 to 195 and 197 to 201. Formula 43 Formula 44 Formula 45 Formula 47 Formula 48 Formula 100 Formula 102 Formula 105 Formula 106 Formula 107 Formula 117 Formula 118 Formula 119 Formula 120 Formula 121 Formula 122 Formula 123 Formula 181 Formula 182 Formula 183 Formula 184 Formula 185 Formula 187 Formula 190 Formula 191 Formula 192 Formula 193 Formula 194 Formula 195 Formula 197 Formula 198 Formula 199 Formula 200 Formula 201
Method for predictable exposure control of at least one first vehicle camera (12, 14, 16), comprising the steps of: - providing at least one first vehicle camera (12, 14, 16), whose field of view (12.1, 14.1, 16.1) is directed substantially to the side or to the rear for capturing a lateral, a lateral rear and/or a rear surrounding region of a vehicle, - providing at least one second vehicle camera, whose field of view (18.1) is directed substantially to the front for capturing an outer front surrounding region of the vehicle, - recording second image data of the outer front surroundings of the vehicle by means of the second vehicle camera, - detecting a region with a changed brightness within the second image data of the second vehicle camera, - determining a necessary change in an exposure value based on the second image data to compensate for any brightening or darkening that occurs when the vehicle enters the region with the changed brightness, - transmitting the changed exposure value to the at least one first vehicle camera (12, 14, 16) so that the at least one first vehicle camera (12, 14, 16) can record first image data based on the changed exposure values when the region with the changed brightness is entered, wherein a remaining time period (t v) until the vehicle is predicted to enter the region with the changed brightness is determined and movement values of the vehicle are ascertained, and the remaining time period (t v) until the vehicle is predicted to enter the region with the changed brightness is determined on the basis of the movement values. - providing at least one first vehicle camera (12, 14, 16), whose field of view (12.1, 14.1, 16.1) is directed substantially to the side or to the rear for capturing a lateral, a lateral rear and/or a rear surrounding region of a vehicle, - providing at least one second vehicle camera, whose field of view (18.1) is directed substantially to the front for capturing an outer front surrounding region of the vehicle, - recording second image data of the outer front surroundings of the vehicle by means of the second vehicle camera, - detecting a region with a changed brightness within the second image data of the second vehicle camera, - determining a necessary change in an exposure value based on the second image data to compensate for any brightening or darkening that occurs when the vehicle enters the region with the changed brightness, - transmitting the changed exposure value to the at least one first vehicle camera (12, 14, 16) so that the at least one first vehicle camera (12, 14, 16) can record first image data based on the changed exposure values when the region with the changed brightness is entered, wherein
A method for wireless communications at a user equipment, UE (115, 115-a, 115-b), comprising: monitoring (510, 1605) a shared radio frequency spectrum band for a downlink control channel from a base station (105, 105-a, 105-b) during a first transmission time interval; receiving (520, 1610) the downlink control channel from the base station (105, 105-a, 105-b) during the first transmission time interval based at least in part on the monitoring, the downlink control channel indicating respective grants for each of a set of transmission time intervals including a second transmission time interval subsequent the first transmission time interval, wherein the downlink control channel corresponds to a respective control monitoring pattern of a limit of control channel elements, CCEs, for the UE (115, 115-a, 115-b) to process; and receiving (525, 1615) one or more downlink data transmissions over the set of transmission time intervals in accordance with the respective grants. monitoring (510, 1605) a shared radio frequency spectrum band for a downlink control channel from a base station (105, 105-a, 105-b) during a first transmission time interval; receiving (520, 1610) the downlink control channel from the base station (105, 105-a, 105-b) during the first transmission time interval based at least in part on the monitoring, the downlink control channel indicating respective grants for each of a set of transmission time intervals including a second transmission time interval subsequent the first transmission time interval, wherein the downlink control channel corresponds to a respective control monitoring pattern of a limit of control channel elements, CCEs, for the UE (115, 115-a, 115-b) to process; and receiving (525, 1615) one or more downlink data transmissions over the set of transmission time intervals in accordance with the respective grants.
A power conversion apparatus for heat treatment comprising: a rectifier configured to convert AC power to DC power; a smoothing filter configured to control the DC power received from the rectifier to be constant; an inverter configured to convert the DC power received from the smoothing filter into high-frequency power by turning the DC power on and off using a switching device; and a control unit configured to control the rectifier and the inverter, characterized in that the control unit is configured to determine a rating of output power from the inverter in accordance with a frequency of the high-frequency power output from the inverter, a current-applying time, and an operation rate obtained by dividing the current-applying time by a sum of the current-applying time and a non-current-applying time, such that a junction temperature of the switching device does not exceed a given temperature, wherein the current-applying time is a time during which high-frequency power is output from the inverter. a rectifier configured to convert AC power to DC power; a smoothing filter configured to control the DC power received from the rectifier to be constant; an inverter configured to convert the DC power received from the smoothing filter into high-frequency power by turning the DC power on and off using a switching device; and a control unit configured to control the rectifier and the inverter, characterized in that the control unit is configured to determine a rating of output power from the inverter in accordance with a frequency of the high-frequency power output from the inverter, a current-applying time, and an operation rate obtained by dividing the current-applying time by a sum of the current-applying time and a non-current-applying time, such that a junction temperature of the switching device does not exceed a given temperature, wherein the current-applying time is a time during which high-frequency power is output from the inverter.
Method for isolating nucleic acids from a biological sample, comprising the following steps: (a) lysis of said biological sample in the presence of at least 0.1 mM of a chelating agent and a detergent, (b) enzymatic digestion of non-nucleic acid components in the product of step (a) at a temperature in the range of 55 to 65°C, with one or more different protease(s), (c) heat inactivation of the one or more protease(s) used in step (b), (d) transfer of the product of step (c) onto a size exclusion resin capable of retaining non-nucleic acid components, while the nucleic acids pass through the resin, thereby purifying the nucleic acids. (a) lysis of said biological sample in the presence of at least 0.1 mM of a chelating agent and a detergent, (b) enzymatic digestion of non-nucleic acid components in the product of step (a) at a temperature in the range of 55 to 65°C, with one or more different protease(s), (c) heat inactivation of the one or more protease(s) used in step (b), (d) transfer of the product of step (c) onto a size exclusion resin capable of retaining non-nucleic acid components, while the nucleic acids pass through the resin,
A method for diagnosing an epithelial cancer in a subject comprising: (a) detecting a level of an EpICD polypeptide or a polynucleotide encoding an EpICD polypeptide in a sample from the subject, wherein the EpICD polypeptide consists of a 26 amino acid cytoplasmic domain of EpCAM; and (b) comparing the level detected in the subject's sample to levels detected for a predetermined standard, wherein an increased level of EpICD polypeptide or polynucleotide encoding an EpICD polypeptide in the sample from the subject over that of the control level is indicative of epithelial cancer, wherein the epithelial cancer is breast cancer, prostate cancer, lung cancer, pancreatic cancer, urinary bladder cancer, ovarian cancer, liver cancer, head and neck cancer or esophageal cancer. (a) detecting a level of an EpICD polypeptide or a polynucleotide encoding an EpICD polypeptide in a sample from the subject, wherein the EpICD polypeptide consists of a 26 amino acid cytoplasmic domain of EpCAM; and (b) comparing the level detected in the subject's sample to levels detected for a predetermined standard, wherein an increased level of EpICD polypeptide or polynucleotide encoding an EpICD polypeptide in the sample from the subject over that of the control level is
A kingpin arrangement, in particular for an automatic coupling system, comprising a kingpin, a turntable and a support structure, wherein the kingpin extends in a kingpin direction, wherein the turntable is mounted rotatably about the kingpin direction relative to the kingpin, in particular is mounted on a plain-bearing, wherein the turntable has an opening through which the kingpin extends, wherein the support structure extends in a radial direction, wherein the support structure comprises fastening means for indirectly and/or directly fastening and/or mounting a plug connector, and wherein the support structure is fixed indirectly and/or directly to the turntable, in particular with a first end of the support structure, characterized in that the support structure has two legs, wherein each of the legs is indirectly and/or directly fixed to the turntable, wherein the kingpin is at least partially arranged between the legs. a kingpin, a turntable and a support structure, wherein the kingpin extends in a kingpin direction, wherein the turntable is mounted rotatably about the kingpin direction relative to the kingpin, in particular is mounted on a plain-bearing, wherein the turntable has an opening through which the kingpin extends, wherein the support structure extends in a radial direction, wherein the support structure comprises fastening means for indirectly and/or directly fastening and/or mounting a plug connector, and wherein the support structure is fixed indirectly and/or directly to the turntable, in particular with a first end of the support structure, characterized in that the support structure has two legs, wherein each of the legs is indirectly and/or directly fixed to the turntable, wherein the kingpin is at least partially arranged between the legs.
Two-component mortar mass with - a hardenable resin component containing at least one radically polymerisable resin, 5 to 35% by weight of a reactive thinner mixture made of at least one hydroxyalkyl (meth)acrylate and at least one acetacetoxyalkyl (meth)acrylate in a weight ratio from 1.5:1 to 5.2:1, fillers, solvents and accelerators - as well as a hardener component arranged so that is separated from it in a way that inhibits reaction. - a hardenable resin component containing at least one radically polymerisable resin, 5 to 35% by weight of a reactive thinner mixture made of at least one hydroxyalkyl (meth)acrylate and at least one acetacetoxyalkyl (meth)acrylate in a weight ratio from 1.5:1 to 5.2:1, fillers, solvents and accelerators - as well as a hardener component arranged so that is separated from it in a way that inhibits reaction.
Flow rate measuring device, comprising: a flow rate measuring module into which a gas is introduced and which measures the flow rate of the gas, a passage forming component (1, 12) which forms a passage; and a grid which crosses the passage, in which a part of the flow rate measuring module is inserted through an opening provided in the passage forming component (1, 12) to be fixed therein, wherein the grid includes a first grid portion and a second grid portion between the first grid portion and the passage forming component (1, 12), and the second grid portion is formed to be more easily deformable than the first grid portion characterized in that the second grid portion is formed by only beams, which are tilted relative to normal directions to the inner periphery of the passage forming component (1, 12). a flow rate measuring module into which a gas is introduced and which measures the flow rate of the gas, a passage forming component (1, 12) which forms a passage; and a grid which crosses the passage, in which a part of the flow rate measuring module is inserted through an opening provided in the passage forming component (1, 12) to be fixed therein, wherein the grid includes a first grid portion and a second grid portion between the first grid portion and the passage forming component (1, 12), and the second grid portion is formed to be more easily deformable than the first grid portion characterized in that the second grid portion is formed by only beams, which are tilted relative to normal directions to the inner periphery of the passage forming component (1, 12).
Method for identifying a raindrop on the windscreen of a vehicle, wherein with a camera, an image of at least a part of the windscreen is captured and first image points in the image, which are brighter than a first luminance threshold value are extracted and second image points, which are darker than a second luminance threshold value are extracted and the first and second image points are fused into a fusion image, with the fusion image being taken into consideration for the detection of a rain drop and the first and/or the second luminance threshold value can be adjusted in dependence on at least one vehicle parameter characterized in that, as vehicle parameter the inclination of the vehicle is taken into consideration.
An optical smoke detector comprising: a sensor chamber, wherein internal walls of the sensor chamber are black; a housing having walls that define the sensor chamber and a labyrinth; a light source configured to illuminate a gas within the sensor chamber; a light detector configured to detect light from the light source that has been scattered by smoke within the sensor chamber; characterized by: an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke. a sensor chamber, wherein internal walls of the sensor chamber are black; a housing having walls that define the sensor chamber and a labyrinth; a light source configured to illuminate a gas within the sensor chamber; a light detector configured to detect light from the light source that has been scattered by smoke within the sensor chamber; characterized by: an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke. an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke.
An outdoor unit for an air conditioner, comprising: an engine; a first compressor that is driven by the engine; a second compressor that is connected in parallel to the first compressor and that is driven by electric power; an outdoor heat exchanger; and a controller, characterized in that the controller causes the second compressor to be driven earlier than the engine and the first compressor in a defrosting operation in which the outdoor heat exchanger is defrosted. an engine; a first compressor that is driven by the engine; a second compressor that is connected in parallel to the first compressor and that is driven by electric power; an outdoor heat exchanger; and a controller, characterized in that the controller causes the second compressor to be driven earlier than the engine and the first compressor in a defrosting operation in which the outdoor heat exchanger is defrosted.
A method in a mobile terminal, wherein a first electromagnet with a first magnetic pole is set in a mobile terminal, the mobile terminal is placed in a base, and the base is set with a second magnet with a second magnetic pole facing the first magnetic pole, the second magnetic pole having a polarity opposite to the polarity of the first magnetic pole, the magnetic poles thereby attracting each other such that the mobile terminal stays securely in the base, characterized in that the first electromagnet is set in the bottom of the mobile terminal, in that the polarity of the first magnetic pole can be switched with an electrode change, and in that the method comprises the steps of: when a preset triggering condition is met, sending, by the mobile terminal, a first control signal to control the polarity of the first magnetic pole, such that the first magnetic pole will have a polarity identical to the polarity of the second magnetic pole, wherein said first control signal drives a Pulse Width Modulation wave; and adjusting, by the mobile terminal, a magnetic strength of the first electromagnet using the PWM signal to vary a difference between gravity of the mobile terminal and a magnetic force with the frequency of the PWM signal, such that repulsion between magnetic poles of the same polarity will overcome the gravity of the mobile terminal such that the mobile terminal floats up and down. when a preset triggering condition is met, sending, by the mobile terminal, a first control signal to control the polarity of the first magnetic pole, such that the first magnetic pole will have a polarity identical to the polarity of the second magnetic pole, wherein said first control signal drives a Pulse Width Modulation wave; and adjusting, by the mobile terminal, a magnetic strength of the first electromagnet using the PWM signal to vary a difference between gravity of the mobile terminal and a magnetic force with the frequency of the PWM signal, such that repulsion between magnetic poles of the same polarity will overcome the gravity of the mobile terminal such that the mobile terminal floats up and down.