mhurhangee/patent-ind-claim-en huggingface dataset:
A propeller fan , comprising: a shaft part provided along a rotation axis (R); and a blade provided outside an outer circumference of the shaft part , the blade including a basal part connected to the shaft part , a first part (P1) positioned either at the basal part or closer to an outer circumference of the propeller fan than is the basal part and away from the rotation axis (R) by a distance r1, a second part (P2) positioned away from the rotation axis (R) by a distance r2 that is longer than r1, a third part (P3) positioned away from the rotation axis (R) by a distance r3 that is longer than or equal to r2, and a tip part positioned at an outer circumferential end of the blade and away from the rotation axis (R) by a distance rt that is longer than r3, a warping angle of the blade increasing in a section from the first part (P1) to the tip part , as a distance from the rotation axis (R) increases the propeller fan being characterised in that a relationship expressed as (θ2 - θ1) / (r2 - r1) > (θt - θ3) / (rt - r3) ≥ 0 being satisfied, where θ1 denotes a warping angle of the blade in the first part (P1), θ2 denotes a warping angle of the blade in the second part (P2), θ3 denotes a warping angle of the blade in the third part (P3), and θt denotes a warping angle of the blade in the tip part . a shaft part provided along a rotation axis (R); and a blade provided outside an outer circumference of the shaft part , the blade including a basal part connected to the shaft part , a first part (P1) positioned either at the basal part or closer to an outer circumference of the propeller fan than is the basal part and away from the rotation axis (R) by a distance r1, a second part (P2) positioned away from the rotation axis (R) by a distance r2 that is longer than r1, a third part (P3) positioned away from the rotation axis (R) by a distance r3 that is longer than or equal to r2, and a tip part positioned at an outer circumferential end of the blade and away from the rotation axis (R) by a distance rt that is longer than r3, a warping angle of the blade increasing in a section from the first part (P1) to the tip part , as a distance from the rotation axis (R) increases the propeller fan being characterised in that a relationship expressed as (θ2 - θ1) / (r2 - r1) > (θt - θ3) / (rt - r3) ≥ 0 being satisfied, where θ1 denotes a warping angle of the blade in the first part (P1), θ2 denotes a warping angle of the blade in the second part (P2), θ3 denotes a warping angle of the blade in the third part (P3), and θt denotes a warping angle of the blade in the tip part .
A haptic output device , comprising: an actuator configured to generate a haptic effect; and a processor comprising a lookup table that comprises optimal braking parameters associated with different driving signals at different frequencies, and wherein the optimal braking parameters comprise optimal starting times for braking signals and optimal amplitudes for the braking signals, wherein the processor is configured: to communicate a driving signal to the actuator, the driving signal having a frequency lower than a resonant frequency of the actuator; and to communicate a braking signal to the actuator at a starting time associated with the frequency of the driving signal in the lookup table, the braking signal having a frequency substantially the same as the resonant frequency of the actuator and being out of phase with the driving signal, wherein a phase of the braking signal is based on the frequency of the driving signal. an actuator configured to generate a haptic effect; and a processor comprising a lookup table that comprises optimal braking parameters associated with different driving signals at different frequencies, and wherein the optimal braking parameters comprise optimal starting times for braking signals and optimal amplitudes for the braking signals, wherein the processor is configured: to communicate a driving signal to the actuator, the driving signal having a frequency lower than a resonant frequency of the actuator; and to communicate a braking signal to the actuator at a starting time associated with the frequency of the driving signal in the lookup table, the braking signal having a frequency substantially the same as the resonant frequency of the actuator and being out of phase with the driving signal, wherein a phase of the braking signal is based on the frequency of the driving signal. to communicate a driving signal to the actuator, the driving signal having a frequency lower than a resonant frequency of the actuator; and to communicate a braking signal to the actuator at a starting time associated with the frequency of the driving signal in the lookup table, the braking signal having a frequency substantially the same as the resonant frequency of the actuator and being out of phase with the driving signal, wherein a phase of the braking signal is based on the frequency of the driving signal.
A plasma processing apparatus comprising: a balun including a first unbalanced terminal , a second unbalanced terminal , a first balanced terminal , and a second balanced terminal ; a grounded vacuum container ; a first electrode electrically connected to the first balanced terminal; and a second electrode electrically connected to the second balanced terminal, characterized in that when Rp represents a resistance component between the first balanced terminal and the second balanced terminal when viewing a side of the first electrode and the second electrode from a side of the first balanced terminal and the second balanced terminal , and X represents an inductance between the first unbalanced terminal and the first balanced terminal , 1.5 ≤ X/Rp ≤ 5000 is satisfied. a balun including a first unbalanced terminal , a second unbalanced terminal , a first balanced terminal , and a second balanced terminal ; a grounded vacuum container ; a first electrode electrically connected to the first balanced terminal; and a second electrode electrically connected to the second balanced terminal, characterized in that when Rp represents a resistance component between the first balanced terminal and the second balanced terminal when viewing a side of the first electrode and the second electrode from a side of the first balanced terminal and the second balanced terminal , and X represents an inductance between the first unbalanced terminal and the first balanced terminal , 1.5 ≤ X/Rp ≤ 5000 is satisfied.
A computer-implemented method for denoising an image , the method comprising: processing the image using a plurality of first denoisers to generate a plurality of first denoised images, wherein each first denoiser comprises a specialized denoiser (152 i ) trained to denoise images associated with a specific respective range of noise parameters; and processing the image and the plurality of first denoised images using a second denoiser to generate a second denoised image , wherein the second denoiser comprises a generalizer trained for denoising images associated with arbitrary noise parameters; the method further comprising: downsampling the image to generate a downsampled image; processing the downsampled image using the plurality of first denoisers to generate a plurality of third denoised images; processing the downsampled image and the plurality of third denoised images using the second denoiser to generate a fourth denoised image; and combining the second denoised image and the fourth denoised image to produce a first blended image. processing the image using a plurality of first denoisers to generate a plurality of first denoised images, wherein each first denoiser comprises a specialized denoiser (152 i ) trained to denoise images associated with a specific respective range of noise parameters; and processing the image and the plurality of first denoised images using a second denoiser to generate a second denoised image , wherein the second denoiser comprises a generalizer trained for denoising images associated with arbitrary noise parameters; the method further comprising: downsampling the image to generate a downsampled image; processing the downsampled image using the plurality of first denoisers to generate a plurality of third denoised images; processing the downsampled image and the plurality of third denoised images using the second denoiser to generate a fourth denoised image; and combining the second denoised image and the fourth denoised image to produce a first blended image. downsampling the image to generate a downsampled image; processing the downsampled image using the plurality of first denoisers to generate a plurality of third denoised images; processing the downsampled image and the plurality of third denoised images using the second denoiser to generate a fourth denoised image; and combining the second denoised image and the fourth denoised image to produce a first blended image.
Method for the quantitative detection of hydroxyethyl starch in a sample selected from the group consisting of tissue, body fluid and/or feces comprising the steps of - adding of an alpha-amylase to the sample by addition of blood plasma; - incubating the sample in the presence of said α-amylase; and - subjecting said sample to liquid chromatography mass spectrometry (LC-MS) to detect ions characteristic of the hydroxyethyl starch in said sample. - adding of an alpha-amylase to the sample by addition of blood plasma; - incubating the sample in the presence of said α-amylase; and - subjecting said sample to liquid chromatography mass spectrometry (LC-MS) to detect ions characteristic of the hydroxyethyl starch in said sample.
A reinforcing element for a seal , wherein the reinforcing element comprises an annular body of elastomeric material and more than one non-endless twisted cords in an annular arrangement within said elastomeric material; wherein the more than one non-endless cords do not comprise metal or woven fabric; and wherein the more than one non-endless cords comprise glass fibre, carbon fibre, aramid fibre, cotton, cellulose, nylon, polyester, PET or combinations thereof; and wherein the more than one non-endless cords are arranged uniaxially; optionally wherein the seal comprises a rotary lip seal or a hydraulic seal.
A vehicle side structure (100; 101) comprising a side portion (102; 103) extending in a longitudinal direction , wherein the side portion comprises a first member extending in the longitudinal direction and a second member extending in the longitudinal direction , the first member being configured to face the inside of a vehicle, and the second member being configured to face the outside of the vehicle, wherein the first and second members are attached to one another to form a substantially closed space between them, wherein the side portion comprises a reinforcing member located in the substantially closed space , the reinforcement member extending in the longitudinal direction , wherein the reinforcement member has a first leg extending in a direction transverse to the longitudinal direction , wherein the reinforcement member has a second leg extending in a direction transverse to the longitudinal direction , wherein each leg has a foot extending in the longitudinal direction , wherein the feet of the first and second legs are spaced apart from one another, wherein the first and second legs are joined in a head section , wherein the head section faces the first or second member , and the feet face the other member of the first and second members , wherein each leg is corrugated in the longitudinal direction , wherein the corrugations of the first and second legs comprise ridges and grooves , the ridges and grooves extending from the head section to the respective foot , characterised in that , each ridge is more prominent in the head section than at the foot , wherein the reinforcement member (124; 224) comprises a plurality of member sections (140; 240), wherein each member section (140; 240) comprises a ridge (144; 244) and a groove (142; 242) of the first leg (126; 226), wherein each member section (140; 240) comprises a ridge (136; 236) and a groove (138; 238) of the second leg (128; 228), and wherein each member section (140; 240) forms an S-shape in the head section. wherein each leg is corrugated in the longitudinal direction , wherein the corrugations of the first and second legs comprise ridges and grooves , the ridges and grooves extending from the head section to the respective foot , characterised in that , each ridge is more prominent in the head section than at the foot , wherein the reinforcement member (124; 224) comprises a plurality of member sections (140; 240), wherein each member section (140; 240) comprises a ridge (144; 244) and a groove (142; 242) of the first leg (126; 226), wherein each member section (140; 240) comprises a ridge (136; 236) and a groove (138; 238) of the second leg (128; 228), and wherein each member section (140; 240) forms an S-shape in the head section.
A communication device comprising: a receiving unit configured to receive configuration information of a bandwidth part, BWP, to be applied to a sidelink transmission; and a control unit configured to configure a frequency resource and subcarrier spacing for the sidelink transmission based on the received configuration information of the BWP, wherein the configuration information of the BWP is configured independently of configuration information of a BWP to be applied to an uplink transmission. a receiving unit configured to receive configuration information of a bandwidth part, BWP, to be applied to a sidelink transmission; and a control unit configured to configure a frequency resource and subcarrier spacing for the sidelink transmission based on the received configuration information of the BWP, wherein the configuration information of the BWP is configured independently of configuration information of a BWP to be applied to an uplink transmission.
A position measurement system , comprising: a rod having a base , the rod being configured to be disposed with the base substantially in contact with a ground surface and a longitudinal axis in a substantially vertical position; said rod including a position measurement device and a tilt sensor ; a processor in communication with the position measurement device and the tilt sensor; and a non-transitory computer readable medium having encoded thereon a set of instructions executable by the processor to cause the position measurement system to: receive tilt data from the tilt sensor, the tilt data indicating a tilt angle of the rod; and determine, based on the tilt data, that a tilt of the rod is within a specified tolerance from the vertical position; characterized by the set of instructions further comprising instructions to cause the position measurement system to capture position data, using the position measurement device, about a position of the position measurement system, when the tilt of the rod is determined to be within the specified tolerance from the vertical position. a rod having a base , the rod being configured to be disposed with the base substantially in contact with a ground surface and a longitudinal axis in a substantially vertical position; said rod including a position measurement device and a tilt sensor ; a processor in communication with the position measurement device and the tilt sensor; and a non-transitory computer readable medium having encoded thereon a set of instructions executable by the processor to cause the position measurement system to: receive tilt data from the tilt sensor, the tilt data indicating a tilt angle of the rod; and determine, based on the tilt data, that a tilt of the rod is within a specified tolerance from the vertical position; characterized by the set of instructions further comprising instructions to cause the position measurement system to capture position data, using the position measurement device, about a position of the position measurement system, when the tilt of the rod is determined to be within the specified tolerance from the vertical position. receive tilt data from the tilt sensor, the tilt data indicating a tilt angle of the rod; and determine, based on the tilt data, that a tilt of the rod is within a specified tolerance from the vertical position; characterized by the set of instructions further comprising instructions to cause the position measurement system to capture position data, using the position measurement device, about a position of the position measurement system, when the tilt of the rod is determined to be within the specified tolerance from the vertical position.
A belt tensioner for a generator belt drive of an internal combustion engine, comprising: - an annular housing part which surrounds the generator shaft and is fastened to the generator housing , - an annular tensioning part which is pivotally mounted on the housing part about the generator shaft , - a single tensioning roller which is mounted on the tensioning part and pretensions the belt and the swivel range of which has two end positions due to the mechanical stopping of the tensioning part on the housing part , - and a spring which is clamped between the housing part and the tensioning part and applies torque to the tensioning part to generate the belt pretension, characterised in that the spring is a bow spring which extends parallel to the belt plane (ε) and circumferentially completely outside the swivel range of the tensioning roller , wherein the housing part has a bow-shaped chamber limited by two circumferential end walls for receiving the bow spring , which is clamped between one of the end walls on the housing part-side spring end and a driver of the tensioning part protruding into the spring receiving space is clamped on the tensioning part-side spring end , and wherein the driver is designed as a projection which rises axially on the side of the tensioning roller . - an annular housing part which surrounds the generator shaft and is fastened to the generator housing , - an annular tensioning part which is pivotally mounted on the housing part about the generator shaft , - a single tensioning roller which is mounted on the tensioning part and pretensions the belt and the swivel range of which has two end positions due to the mechanical stopping of the tensioning part on the housing part , - and a spring which is clamped between the housing part and the tensioning part and applies torque to the tensioning part to generate the belt pretension,
A fuel injection control device for an internal combustion engine configured to be applied to an internal combustion engine including two types of injection valves including a port injection valve , which injects fuel into an intake port , and a direct injection valve , which injects fuel into a cylinder , wherein the fuel injection control device is configured to switch an injection mode (MODE) between a port-injection-only mode, in which only the port injection valve of the two types of injection valves performs fuel injection, and a direct-injection-only mode, in which only the direct injection valve of the two types of injection valves performs fuel injection, a state in which a wall temperature of the intake port is higher than or equal to a predetermined wall temperature is defined as a state in which the port has been warmed up, the fuel injection control device comprises: a port warm-up judgment section , which is configured to judge whether the port has been warmed up; and an injection mode determination section , which is configured to determine the injection mode (MODE) to be executed by the internal combustion engine based on an engine speed (NE) and an engine load, the injection mode determination section is configured such that, when determining the injection mode (MODE) in a cold operation, in which a coolant temperature (THW) of the internal combustion engine is lower than or equal to a predetermined coolant temperature, the injection mode determination section sets, in an operation region of the internal combustion engine specified by the engine speed (NE) and the engine load, a range of the operation region in which the direct-injection-only mode is selected as the injection mode (MODE) to be broader in a case in which the port warm-up judgment section has judged that the port has not been warmed up than in a case in which the port warm-up judgment section has judged that the port has been warmed up, and wherein the port warm-up judgment section is configured to set a port warm-up judgment value (DPW) as a value that is increased as the coolant temperature (THW), at a time when the startup of the internal combustion engine is initiated, is decreased and is configured to judge that the intake port has been warmed up on condition that an accumulated value of an intake air amount (GA) or a fuel injection amount, after the startup of the internal combustion engine is initiated, is greater than or equal to the port warm-up judgment value (DPW), regardless of any changes in the coolant temperature (THW) after the startup of the internal combustion engine is initiated. a port warm-up judgment section , which is configured to judge whether the port has been warmed up; and an injection mode determination section , which is configured to determine the injection mode (MODE) to be executed by the internal combustion engine based on an engine speed (NE) and an engine load,
A process for the stepwise separation of accompanying gases from a raw synthesis gas stream by a liquid absorbent countercurrently guided through all process steps and circulated via regeneration plants, wherein in one of the absorption steps chiefly H 2 S, COS and CO 2 are separated and in the next step in flow direction of the gas a separation of accompanying gas residues (fine wash) is effected, characterized in that before the separation of H 2 S, COS and CO 2 an absorption step chiefly for the separation of aromatics and subsequently an absorption step chiefly for the separation of methyl mercaptan is carried out.