mhurhangee/ep-ind-claims huggingface dataset:
A data accessing method, comprising: receiving a write instruction which comprises to be written data and a write target address; determining whether the write target address belongs to a most significant bit page, MSB page, in a non-volatile storage space; if the write target address does not belong to an MSB page in the non-volatile storage space, storing, in a preset cache area and a non-volatile storage space that is corresponding to the write target address, the to be written data, and establishing a first mapping relationship between the cache address and the write target address; if the write target address belongs to an MSB page in the non-volatile storage space, storing, in the non-volatile storage space corresponding to the write target address, the to be written data; wherein the method further comprises: obtaining a maximum page number difference m between an MSB page and an LSB page in all groups of shared pages in the non-volatile storage space, wherein m is a natural number; and allocating cache space with a size of at least n ∗ p+m pages for the preset cache area, wherein p represents a quantity of shared pages of an MSB page in the non-volatile storage space, and n is a natural number and is at least 1. receiving a write instruction which comprises to be written data and a write target address; determining whether the write target address belongs to a most significant bit page, MSB page, in a non-volatile storage space; if the write target address does not belong to an MSB page in the non-volatile storage space, storing, in a preset cache area and a non-volatile storage space that is corresponding to the write target address, the to be written data, and establishing a first mapping relationship between the cache address and the write target address; if the write target address belongs to an MSB page in the non-volatile storage space, storing, in the non-volatile storage space corresponding to the write target address, the to be written data; wherein the method further comprises: obtaining a maximum page number difference m between an MSB page and an LSB page in all groups of shared pages in the non-volatile storage space, wherein m is a natural number; and allocating cache space with a size of at least n ∗ p+m pages for the preset cache area, wherein p represents a quantity of shared pages of an MSB page in the non-volatile storage space, and n is a natural number and is at least 1. obtaining a maximum page number difference m between an MSB page and an LSB page in all groups of shared pages in the non-volatile storage space, wherein m is a natural number; and allocating cache space with a size of at least n ∗ p+m pages for the preset cache area, wherein p represents a quantity of shared pages of an MSB page in the non-volatile storage space, and n is a natural number and is at least 1.
A radiotherapy device controller comprising: a visual line calculator configured to calculate a visual line based on a position on a transmissive image imaged using a radiation penetrating a subject, a specific part of the subject being shown at the position; a position calculator configured to calculate a position of the specific part based on a position of a trajectory of the specific part and a position of the visual line; and an emitter configured to control a radiation emitter that emits a therapeutic radiation, so that the therapeutic radiation penetrates at the position of the specific part, the radiotherapy device controller characterized in that the position of the specific part indicates a position of a third point included in a line segment connecting a first point and a second point, the first point is included in the trajectory and is the closest to the visual line, and the second point is included in the visual line and is the closest to the trajectory. a visual line calculator configured to calculate a visual line based on a position on a transmissive image imaged using a radiation penetrating a subject, a specific part of the subject being shown at the position; a position calculator configured to calculate a position of the specific part based on a position of a trajectory of the specific part and a position of the visual line; and an emitter configured to control a radiation emitter that emits a therapeutic radiation, so that the therapeutic radiation penetrates at the position of the specific part, the radiotherapy device controller characterized in that the position of the specific part indicates a position of a third point included in a line segment connecting a first point and a second point, the first point is included in the trajectory and is the closest to the visual line, and the second point is included in the visual line and is the closest to the trajectory.
An acoustic device configured to the treatment of tinnitus, which acoustic device comprises: - a wearable support, in particular substantially in the form of headset; - acoustic signal generating means (207, 208), configured to deliver a treatment acoustic signal; - a pair of acoustic emitters (202, 203) connected to said acoustic signal generating means (207, 208), wherein each acoustic emitter is arranged on said wearable support in such a way as to be positioned, in use, at a respective auricle of a user; - means for generating electromagnetic signals (206, 209), configured to deliver an electromagnetic signal of treatment and comprising first inductive stimulation means (204, 205) and second capacitive stimulating means (214, 215) carried by said support in such a way as to be positioned, in use, at or in proximity of the user's auricles, wherein said first inductive means (204, 205) is configured to deliver a first electromagnetic signal in the area of the acoustic nerve and wherein said second capacitive means (214, 215) is configured to deliver a second electromagnetic signal at the cochlear area, in particular at the organ of Corti. - a wearable support, in particular substantially in the form of headset; - acoustic signal generating means (207, 208), configured to deliver a treatment acoustic signal; - a pair of acoustic emitters (202, 203) connected to said acoustic signal generating means (207, 208), wherein each acoustic emitter is arranged on said wearable support in such a way as to be positioned, in use, at a respective auricle of a user; - means for generating electromagnetic signals (206, 209), configured to deliver an electromagnetic signal of treatment and comprising first inductive stimulation means (204, 205) and second capacitive stimulating means (214, 215) carried by said support in such a way as to be positioned, in use, at or in proximity of the user's auricles,
A lift apparatus, comprising: a vertical rail; a linear bearing positioned to be moved along the vertical rail; a drive mechanism coupled to the linear bearing and configured to move the linear bearing at a controlled rate along the vertical rail between a first position at a lower end of a range of motion and a second position at an upper end of the range of motion; and a seat attached to the linear bearing, the seat being constructed at least in part of a substantially rigid material, and having a size and shape suitable to accommodate a seated human occupant, wherein the seat includes a front lip portion that bends down in a direction toward a floor below the bottom of the seat and extends away from the linear bearing. a vertical rail; a linear bearing positioned to be moved along the vertical rail; a drive mechanism coupled to the linear bearing and configured to move the linear bearing at a controlled rate along the vertical rail between a first position at a lower end of a range of motion and a second position at an upper end of the range of motion; and a seat attached to the linear bearing, the seat being constructed at least in part of a substantially rigid material, and having a size and shape suitable to accommodate a seated human occupant, wherein the seat includes a front lip portion that bends down in a direction toward a floor below the bottom of the seat and extends away from the linear bearing.
A vehicle radar system comprising a transceiver arrangement that is arranged to generate and transmit at least a first radar signal cycle and a following second radar signal cycle, where, for the first radar signal cycle, a corresponding first received signal and corresponding first received signal information is obtained, and for a following second radar signal cycle, a corresponding second received signal and corresponding second received signal information is obtained, wherein the vehicle radar system comprises a control unit arranged to calculate a difference between the first received signal information and the second received signal information, characterized in that the first received signal information is constituted by received digital Intermediate Frequency, IF, signals for a first radar signal cycle stored in a first memory and the second received signal information is constituted by received digital IF signals for a second radar signal cycle Z stored in a second memory.
A method for performing bone suppression, the method comprising: Receiving a radiographic image; detecting bones in the radiographic image, the detected bones comprising one or a combination of a clavicle bone, a posterior rib bone, and an anterior rib bone; and suppressing the detected bones in the radiographic image to generate a bone suppressed image, filtering the radiographic image prior to detecting the bones in the radiographic image, wherein filtering the radiographic image includes removing high contrast medical devices from the radiographic image. Receiving a radiographic image; detecting bones in the radiographic image, the detected bones comprising one or a combination of a clavicle bone, a posterior rib bone, and an anterior rib bone; and suppressing the detected bones in the radiographic image to generate a bone suppressed image, filtering the radiographic image prior to detecting the bones in the radiographic image, wherein filtering the radiographic image includes removing high contrast medical devices from the radiographic image.
A method applied in a wireless local area network, WLAN and in a cellular or fixed network, for acquiring offload information, the method comprising: deploying in a mobile server, which is a Wi-Fi mobile server in the WLAN in a centralized management manner, a control plane interface between a cellular or fixed network and the WLAN; the mobile server acquiring (301, 401, 501-506) WLAN offload information, and sending (303, 403, 507) the WLAN offload information to an offload traffic control network element in a cellular or fixed network; the offload traffic control network element executing (304, 404, 508) an offload traffic decision based on the offload information; wherein, the mobile server acquiring the WLAN offload information comprises: the mobile server acquiring the WLAN offload information from an access controller, AC; wherein, the mobile server acquiring WLAN offload information comprises: the mobile server sending (503, 504) an offload information query request to the AC to request the WLAN offload information. deploying in a mobile server, which is a Wi-Fi mobile server in the WLAN in a centralized management manner, a control plane interface between a cellular or fixed network and the WLAN; the mobile server acquiring (301, 401, 501-506) WLAN offload information, and sending (303, 403, 507) the WLAN offload information to an offload traffic control network element in a cellular or fixed network; the offload traffic control network element executing (304, 404, 508) an offload traffic decision based on the offload information; wherein, the mobile server acquiring the WLAN offload information comprises: the mobile server acquiring the WLAN offload information from an access controller, AC; wherein, the mobile server acquiring WLAN offload information comprises: the mobile server sending (503, 504) an offload information query request to the AC to request the WLAN offload information.
An engineered meganuclease that recognizes and cleaves a recognition sequence consisting of SEQ ID NO:3, wherein said engineered meganuclease comprises a first subunit and a second subunit, wherein said first subunit binds to a first recognition half-site of said recognition sequence and comprises a first hypervariable region, and wherein said second subunit binds to a second recognition half-site of said recognition sequence and comprises a second hypervariable region, and wherein said engineered meganuclease comprises an amino acid sequence having at least 96% identity to SEQ ID NO: 8.
Dishwasher, in particular household dishwasher, having a dishwasher cavity for receiving items to be washed and at least one water feed extending completely or partially therein for a water distribution means arranged in the dishwasher cavity, in particular in the upper half of the dishwasher cavity, wherein the water feed comprises at least one closed channel extending in certain regions along an upright wall (13;14) of the dishwasher cavity in particular in an upward direction, through which washing fluid can be guided to the water distribution means, wherein at least one lighting device is associated with the water feed, wherein at least one lighting line (17;18;19;20) is associated as the lighting device with the water feed along its guiding direction, and characterised in that the lighting line(s) itself or themselves is or are hidden by the channel and thus is or are not visible from the front side.
A method for providing improved frequency estimation in a data communication system, the method comprising the steps of: a) performing encoding, interleaving and symbol mapping on original information bits to form a data stream of modulated information symbols; b) inserting pilot symbols with a high initial repetition rate of transmission and at progressively longer time intervals into the data stream to form a radio signal; and c) transmitting the radio signal from a data transmitter to a receiver. a) performing encoding, interleaving and symbol mapping on original information bits to form a data stream of modulated information symbols; b) inserting pilot symbols with a high initial repetition rate of transmission and at progressively longer time intervals into the data stream to form a radio signal; and c) transmitting the radio signal from a data transmitter to a receiver.
A hand held blower/vacuum device comprising: an impeller having an impeller axis; a motor for rotating the impeller; a body for supporting the motor and impeller, the body including a scroll housing for enclosing the impeller; an air inlet in the scroll housing that is aligned axially; an air outlet in the scroll housing, and a handle having an elongate grip, characterized in that the handle is rotatably connected to the body to turn between at least two positions, a blower position for operation in a blower mode in which the air inlet is generally horizontal and the air outlet is generally inclined at a downward angle, and a vacuum position for operation in a vacuum mode in which the air inlet is generally inclined at a downward angle, wherein in both of the blower and vacuum positions a longitudinal axis of the grip generally lies in an upright plane that passes through a centre of gravity of the device, and the grip is disposed above the centre of gravity, such that the device hangs below the grip in different balanced orientations in the blower and vacuum positions.
Securing eye bolt with a bolt, a securing ring connected to the bolt and means for indicating a loading of the securing eye bolt exceeding a limit value, characterised in that the securing ring is swivellingly connected to the bolt, wherein such swivelling is limited by one or two limit stops, wherein the limit stops are so designed that they release the limitation of the swivelling angle range in the event of a load on the securing ring exceeding the limit value.
A laser detection system comprising: a Mach Zehnder interferometer, the Mach Zehnder interferometer comprising: an entry beam splitter for splitting incident light into a first arm, having an arm length L 1 and a second arm having an arm length L 2; a modulation stage for receiving a modulation signal and applying a phase difference to the second arm, the magnitude of the phase difference depending upon the magnitude of the modulation signal, and wherein the modulation stage is a piezoelectric actuated mirror; an exit beam splitter for recombining light from the first arm with light from the second arm to create a first output and a second output; a detection stage comprising a first detector at the first output for detecting intensity modulation caused by interference of the recombined light; and a signal processor communicably connected to both the modulation stage and the detection stage. an entry beam splitter for splitting incident light into a first arm, having an arm length L 1 and a second arm having an arm length L 2; a modulation stage for receiving a modulation signal and applying a phase difference to the second arm, the magnitude of the phase difference depending upon the magnitude of the modulation signal, and wherein the modulation stage is a piezoelectric actuated mirror; an exit beam splitter for recombining light from the first arm with light from the second arm to create a first output and a second output; a detection stage comprising a first detector at the first output for detecting intensity modulation caused by interference of the recombined light; and a signal processor communicably connected to both the modulation stage and the detection stage.
A polyester film, which comprises a copolymerized polyester resin in which a diol and a dicarboxylic acid are copolymerized and a homopolyethylene terephthalate (HOMO-PET) resin, wherein the diol comprises ethylene glycol, neopentyl glycol and 1% by mole to 8% by mole of diethylene glycol, wherein the dicarboxylic acid comprises terephthalic acid, wherein the polyester film comprises the homopolyethylene terephthalate (HOMO-PET) resin in an amount of 0.5% by weight to 25% by weight based on the total weight of the copolymerized polyester resin and the homopolyethylene terephthalate (HOMO-PET) resin, wherein the melting point (Tm) of the polyester film is 190°C to 230 °C as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the melting enthalpy (ΔHm) of the polyester film is 9 J/g or more as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the clumping ratio as measured according to APR PET-S-08 of the polyester film is 10% or less, and the 180° peel strength of the polyester film is 150 gf/3 cm or more, as measured according to the description. wherein the diol comprises ethylene glycol, neopentyl glycol and 1% by mole to 8% by mole of diethylene glycol, wherein the dicarboxylic acid comprises terephthalic acid, wherein the polyester film comprises the homopolyethylene terephthalate (HOMO-PET) resin in an amount of 0.5% by weight to 25% by weight based on the total weight of the copolymerized polyester resin and the homopolyethylene terephthalate (HOMO-PET) resin, wherein the melting point (Tm) of the polyester film is 190°C to 230 °C as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the melting enthalpy (ΔHm) of the polyester film is 9 J/g or more as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the clumping ratio as measured according to APR PET-S-08 of the polyester film is 10% or less, and the 180° peel strength of the polyester film is 150 gf/3 cm or more, as measured according to the description.
Method for determining the suction mass flow of a gas turbine, in which the suction mass flow is determined, using the turbine inlet pressure, the combustion chamber pressure loss and the pressure loss between the surroundings and the compressor inlet as input characteristic quantities (40a, 40b, 40c), the determination taking place without the solving of energy balances and without information relating to the fuel calorific value and without information relating to the fuel mass flow, in each case a provisional value for the suction mass flow (42a, 42b, 42c) being ascertained for each input characteristic quantity (40a, 40b, 40c), in each case a validated value being ascertained for each provisional value (42a, 42b, 42c) by cross-balancing with the other provisional values in each case, and the characteristic quantity characteristic of the suction mass flow of the gas turbine being generated as an average value from the validated values.
A method, for use in an access node of a cellular communications network, comprising: receiving signals comprising multiple instances of an uplink Random Access message; characterized in spatially resolving the received signals to identify directions from which the uplink Random Access message was transmitted; identifying approximate distances from which the uplink Random Access Message was transmitted; and transmitting distinct downlink Random Access response messages for reception in the identified directions from which the uplink Random Access message was transmitted, wherein the distinct downlink Random Access messages are transmitted with power levels based on the identified approximate distances. receiving signals comprising multiple instances of an uplink Random Access message; characterized in spatially resolving the received signals to identify directions from which the uplink Random Access message was transmitted; identifying approximate distances from which the uplink Random Access Message was transmitted; and transmitting distinct downlink Random Access response messages for reception in the identified directions from which the uplink Random Access message was transmitted, wherein the distinct downlink Random Access messages are transmitted with power levels based on the identified approximate distances.