mhurhangee/ep-ind-claims huggingface dataset:
One or more computing devices for removing sensitive content from documents, comprising: a data store for storing one more original documents; a process initiation component configured to initiate a document processing function in response to receipt of one or more triggering events, to provide an initiation instruction; a document retrieval component configured to retrieve one or more original documents to be processed from the data store in response to the initiation instruction; a strategy selection component configured to identify and select a modification strategy for use in transforming sensitive content from said one or more original documents based at least on a particular selection factor associated with a type of machine-trained model to be produced by a recipient entity, the modification strategy specifying one or more particular document modification rules that preserve information in the one or more original documents that is suitable for producing the type of machine-trained model; a removal component configured to transform sensitive content from said one or more original documents in accordance with the selected modification strategy and in accordance with an associated set of modification rules, to provide one or more modified documents, the removal component being configured to preserve formatting and structure associated with said one or more original documents; and a forwarding component configured to forward said one or more modified documents to the recipient entity over a communication conduit. a data store for storing one more original documents; a process initiation component configured to initiate a document processing function in response to receipt of one or more triggering events, to provide an initiation instruction; a document retrieval component configured to retrieve one or more original documents to be processed from the data store in response to the initiation instruction; a strategy selection component configured to identify and select a modification strategy for use in transforming sensitive content from said one or more original documents based at least on a particular selection factor associated with a type of machine-trained model to be produced by a recipient entity, the modification strategy specifying one or more particular document modification rules that preserve information in the one or more original documents that is suitable for producing the type of machine-trained model; a removal component configured to transform sensitive content from said one or more original documents in accordance with the selected modification strategy and in accordance with an associated set of modification rules, to provide one or more modified documents, the removal component being configured to preserve formatting and structure associated with said one or more original documents; and a forwarding component configured to forward said one or more modified documents to the recipient entity over a communication conduit.
A system comprising: a vehicle comprising an accelerator operator by which the speed of the vehicle could be increased/decreased and a steering operator; a humanoid robot comprising: (i) an accelerator actuator coupled to the accelerator operator of the vehicle and configured to operate the accelerator operator, and (ii) a steering actuator coupled to the steering operator of the vehicle and configured to operate the steering operator; and a controller configured to: in response to an accelerator command, send a first signal to the accelerator actuator to operate the accelerator operator of the vehicle, and in response to a steering command, send a second signal to the steering actuator to steer the vehicle, characterized in that the humanoid robot further comprises a brake actuator configured to operate a brake operator of the vehicle, wherein the controller is further configured to, in response to a brake command, send a third signal to the brake actuator to operate the brake operator. a vehicle comprising an accelerator operator by which the speed of the vehicle could be increased/decreased and a steering operator; a humanoid robot comprising: (i) an accelerator actuator coupled to the accelerator operator of the vehicle and configured to operate the accelerator operator, and (ii) a steering actuator coupled to the steering operator of the vehicle and configured to operate the steering operator; and a controller configured to: in response to an accelerator command, send a first signal to the accelerator actuator to operate the accelerator operator of the vehicle, and in response to a steering command, send a second signal to the steering actuator to steer the vehicle, characterized in that the humanoid robot further comprises a brake actuator configured to operate a brake operator of the vehicle, wherein the controller is further configured to, in response to a brake command, send a third signal to the brake actuator to operate the brake operator. in response to an accelerator command, send a first signal to the accelerator actuator to operate the accelerator operator of the vehicle, and in response to a steering command, send a second signal to the steering actuator to steer the vehicle, characterized in that the humanoid robot further comprises a brake actuator configured to operate a brake operator of the vehicle, wherein the controller is further configured to, in response to a brake command, send a third signal to the brake actuator to operate the brake operator.
A method performed by a terminal in a wireless communication system, the method comprising: receiving a radio resource control, RRC, message configuring a plurality of transmission configuration indicator, TCI, states associated with a physical downlink shared channel, PDSCH; receiving a medium access control, MAC, control element, CE, including information bits corresponding to the plurality of TCI states and 1-bit indicating that at least one TCI state for a bandwidth part, BWP, of a serving cell among the plurality of TCI states is associated with a transmission and reception point, TRP, the TRP being one of a first TRP or a second TRP, wherein one bit of the information bits indicates an activation state or a deactivation state of each TCI state among the plurality of TCI states; receiving, from the TRP, downlink control information, DCI, scheduling a PDSCH, the DCI including TCI information indicating a TCI state for the PDSCH from the at least one TCI state for the TRP; and receiving, from the TRP, the PDSCH scheduled by the DCI based on the TCI state indicated by the TCI information. receiving a radio resource control, RRC, message configuring a plurality of transmission configuration indicator, TCI, states associated with a physical downlink shared channel, PDSCH; receiving a medium access control, MAC, control element, CE, including information bits corresponding to the plurality of TCI states and 1-bit indicating that at least one TCI state for a bandwidth part, BWP, of a serving cell among the plurality of TCI states is associated with a transmission and reception point, TRP, the TRP being one of a first TRP or a second TRP, wherein one bit of the information bits indicates an activation state or a deactivation state of each TCI state among the plurality of TCI states; receiving, from the TRP, downlink control information, DCI, scheduling a PDSCH, the DCI including TCI information indicating a TCI state for the PDSCH from the at least one TCI state for the TRP; and receiving, from the TRP, the PDSCH scheduled by the DCI based on the TCI state indicated by the TCI information.
An inkjet recording apparatus, comprising: a print head that includes a nozzle unit ejecting ink; an ink container that contains ink to be supplied to the nozzle unit of the print head; an information reading unit configured to read a first identification code from a first identification label which is attached to an ink supply container that supplies the ink to the ink container, and identify a type of ink contained in the ink supply container according to the first identification code stored in the first identification label; a determination unit configured to determine whether or not the type of the ink contained in the ink supply container is correct ink to be supplied to the ink container according to the first identification code read by the information reading unit; a storage unit configured to store information related to a composition of the ink and precautions for handling of the ink corresponding to the information identifying the type of the ink; a storage information extracting unit configured to extract information from the storage unit when the determination unit determines that the type of the ink contained in the ink supply container is the correct ink to be supplied to the ink container, wherein the extracted information is related to a composition of the ink and precautions for handling of the ink corresponding to the type of the ink contained in the ink supply container; and a display unit configured to display the extracted information on a screen. a print head that includes a nozzle unit ejecting ink; an ink container that contains ink to be supplied to the nozzle unit of the print head; an information reading unit configured to read a first identification code from a first identification label which is attached to an ink supply container that supplies the ink to the ink container, and identify a type of ink contained in the ink supply container according to the first identification code stored in the first identification label; a determination unit configured to determine whether or not the type of the ink contained in the ink supply container is correct ink to be supplied to the ink container according to the first identification code read by the information reading unit; a storage unit configured to store information related to a composition of the ink and precautions for handling of the ink corresponding to the information identifying the type of the ink; a storage information extracting unit configured to extract information from the storage unit when the determination unit determines that the type of the ink contained in the ink supply container is the correct ink to be supplied to the ink container, wherein the extracted information is related to a composition of the ink and precautions for handling of the ink corresponding to the type of the ink contained in the ink supply container; and a display unit configured to display the extracted information on a screen.
Device for finish-machining of a workpiece, with a finishing block holder for holding a finishing block, wherein the device comprises a pivot carrier which is pivotable about a pivot axis for arrangement of a force application device which rests on the pivot carrier and exerts a force on the finishing block holder and/or the finishing block and presses an action face of the finishing block against a workpiece surface to be machined, wherein the force application device, the finishing block holder and the finishing block together with the pivot carrier are pivotable about the pivot axis, wherein the force application device comprises a pneumatic drive for controlling the forces acting on the finishing block holder and/or the finishing block in the direction of the workpiece, characterised in that an angle compensation device is provided for generating a moment acting about the pivot axis on the finishing block holder and/or the finishing block, and that the angle compensation device comprises a pneumatic actuator for controlling the moments generated by the angle compensation device.
Powdermetallurgically produced valve seat ring comprising a carrier layer and a function layer, wherein the carrier material of the carrier layer has a total copper content ranging between > 25 to 40 % w/w to provide a thermal conductivity in excess of 55 W / m*K characterized i n that the carrier material contains an iron-copper alloy, the copper content of the iron-copper-alloy exceeding 5 % w/w.
A method in a radio access network, RAN, node (102 2) configured to interact with a core network, CN, node and a wireless device (104 2), the method comprising: receiving, from the wireless device, one or more repetitions of an access request message, wherein the access request message comprises: an indication of a number of data blocks (202 1, 202 2...202 x) the wireless device intends to transmit to the RAN node; and transmitting, to the wireless device, one or more repetitions of an uplink assignment message, wherein the uplink assignment message comprises: an indication of a number of pre-allocated radio blocks on a packet data traffic channel; an indication (N TX, UL) of an Uplink, UL, coverage class; and an indication of a starting point of the pre-allocated radio blocks that the wireless device is to use to transmit a first data block (202 1) from the data blocks that the wireless device intends to transmit to the RAN node, wherein the pre-allocated radio blocks are allocated such that each of the data blocks does not need to be transmitted contiguously with respect to one another by the wireless device. receiving, from the wireless device, one or more repetitions of an access request message, wherein the access request message comprises: an indication of a number of data blocks (202 1, 202 2...202 x) the wireless device intends to transmit to the RAN node; and transmitting, to the wireless device, one or more repetitions of an uplink assignment message, wherein the uplink assignment message comprises: an indication of a number of pre-allocated radio blocks on a packet data traffic channel; an indication (N TX, UL) of an Uplink, UL, coverage class; and an indication of a starting point of the pre-allocated radio blocks that the wireless device is to use to transmit a first data block (202 1) from the data blocks that the wireless device intends to transmit to the RAN node, an indication of a number of pre-allocated radio blocks on a packet data traffic channel; an indication (N TX, UL) of an Uplink, UL, coverage class; and an indication of a starting point of the pre-allocated radio blocks that the wireless device is to use to transmit a first data block (202 1) from the data blocks that the wireless device intends to transmit to the RAN node, wherein the pre-allocated radio blocks are allocated such that each of the data blocks does not need to be transmitted contiguously with respect to one another by the wireless device.
A method of tuning a resonance frequency of an electric-based antenna formed by a radiator element coupled to an antenna ground plane, comprising: providing a plurality of parasitic capacitive elements extending in an electric field direction of the electric-based antenna so as to lower the resonance frequency of the electric-based antenna below a desired resonance frequency; integrating the electric-based antenna within a deployment environment; obtaining an indication of an actual resonance frequency of the electric-based antenna within the deployment environment; and removing, after integration into the deployment environment, one or more of the parasitic capacitive elements so as to adjust the actual resonance frequency towards the desired resonance frequency. providing a plurality of parasitic capacitive elements extending in an electric field direction of the electric-based antenna so as to lower the resonance frequency of the electric-based antenna below a desired resonance frequency; integrating the electric-based antenna within a deployment environment; obtaining an indication of an actual resonance frequency of the electric-based antenna within the deployment environment; and removing, after integration into the deployment environment, one or more of the parasitic capacitive elements so as to adjust the actual resonance frequency towards the desired resonance frequency.
A method for enhancing reliability of information transmission, comprising the steps of: (a) establishing a matrix based on a length of valid information bits in frame time slots; and creating a new matrix by adding Error Correction Code preset for rows and columns of said matrix respectively thereto; (b) adopting a 1 st Interleaving method to re-allocate the redundancy bits which have been processed by said ECC for rows in said new matrix, to both ends of said frame time slots; and (c) adopting a 2 nd Interleaving method to re-allocate the remaining bits in said new matrix to the middle of said frame time slots. (a) establishing a matrix based on a length of valid information bits in frame time slots; and creating a new matrix by adding Error Correction Code preset for rows and columns of said matrix respectively thereto; (b) adopting a 1 st Interleaving method to re-allocate the redundancy bits which have been processed by said ECC for rows in said new matrix, to both ends of said frame time slots; and (c) adopting a 2 nd Interleaving method to re-allocate the remaining bits in said new matrix to the middle of said frame time slots.
A motor control device having voltage detection means to detect a voltage serving as a current flowing in an inverter for a motor; overcurrent detection means to compare a detected voltage (Vru, Vrv, Vrw) from the voltage detection means with a reference voltage (Vref) for overcurrent determination; and overcurrent determination means to determine presence or absence of overcurrent on the basis of a detection signal from the overcurrent detection means; wherein the motor control devise comprises: overcurrent test means to send a test voltage not lower than the reference voltage in place of the detected voltage to the overcurrent detection means when the motor is not rotated; abnormal diagnosis means to determine that an abnormality occurs in the overcurrent detection means when the overcurrent determination means determines that the test voltage from the overcurrent test means causes no overcurrent; characterized by second overcurrent test means to send a second test voltage lower than the reference voltage in place of the detected voltage to the overcurrent detection means when the motor is not rotated; and second abnormal diagnosis means to determine that an abnormality occurs in the overcurrent detection means when the overcurrent determination means determines that the second test voltage from the second overcurrent test means causes an overcurrent. overcurrent test means to send a test voltage not lower than the reference voltage in place of the detected voltage to the overcurrent detection means when the motor is not rotated; abnormal diagnosis means to determine that an abnormality occurs in the overcurrent detection means when the overcurrent determination means determines that the test voltage from the overcurrent test means causes no overcurrent; characterized by second overcurrent test means to send a second test voltage lower than the reference voltage in place of the detected voltage to the overcurrent detection means when the motor is not rotated; and second abnormal diagnosis means to determine that an abnormality occurs in the overcurrent detection means when the overcurrent determination means determines that the second test voltage from the second overcurrent test means causes an overcurrent.
A method for manufacturing a high strength galvanized steel sheet having excellent formability and stability of mechanical properties, comprising the steps of subjecting a steel slab having the component composition consisting of C: 0.04% or more, and 0.13% or less, Si: 0.7% or more, and 2.3% or less, Mn: 0.8% or more, and 2.0% or less, P: 0.1% or less, S: 0.01% or less, Al: 0.1% or less, N: 0.008% or less, and optionally at least one type of element selected from Cr: 0.05% or more, and 1.0% or less, V: 0.005% or more, and 0.5% or less, Mo: 0.005% or more, and 0.5% or less, Ni: 0.05% or more, and 1.0% or less, Cu: 0.05% or more, and 1.0% or less, Ti: 0.01% or more, and 0.1% or less, Nb: 0.01% or more, and 0.1% or less, and B: 0.0003% or more, and 0.0050% or less, Ca: 0.001% or more, and 0.005% or less, REM: 0.001% or more, and 0.005% or less, Ta: 0.001% or more, and 0.010% or less, Sn: 0.002% or more, and 0.2% or less, and Sb: 0.002% or more, and 0.2% or less and the remainder composed of Fe and incidental impurities on a percent by mass basis, to hot rolling and pickling, or hot rolling, pickling, and cold rolling, performing heating to a temperature range of 650°C or higher at an average heating rate of 5°C/s or more, followed by keeping in a temperature range of 750°C to 900°C for 15 to 600 s, performing cooling to a temperature range of 450°C to 550°C, followed by keeping in the temperature range of 450°C to 550°C for 10 to 200 s, and performing galvanization, wherein after the galvanization is performed, an alloying treatment of zinc coating is performed in a temperature range of 500°C to 600°C under the condition satisfying the following formula, 0.45 ≤ exp [200/(400 - T)] x ln(t) ≤ 1.0 where T: average keeping temperature (°C) in a temperature range of 500°C to 600°C, t: keeping time (s) in a temperature range of 500°C to 600°C, and exp and ln represent an exponential function and natural logarithm, respectively, of X.
A method for forming semiconductor devices using a semiconductor substrate having first and second opposed sides, and at least one device layer on the second side of the substrate, the at least one device layer including first and second device portions, the method comprising the steps of: forming a first trench in the first side of the substrate between the first and second device portions; forming an isolation trench in the at least one device layer, the isolation trench defining a first mesa including the first device portion and a second mesa including the second device portion; forming a sacrificial layer over the first and second mesas; thereafter forming a second trench in the second side of the substrate in and along the isolation trench whilst the sacrificial layer is disposed on the at least one device layer, the second trench extending between the first and second device portions; thereafter removing the sacrificial layer from the substrate; and thereafter breaking the substrate along the first and second trenches (134, 136) to form first and second dies, the first die including a first portion of the substrate and the first device portion, and the second die including a second portion of the substrate and the second device portion; wherein the first trench is a shaping trench configured to shape the substrate in a manner that limits total internal reflection in the semiconductor devices by causing more rays to strike a surface of the substrate at lower angles of incidence. forming a first trench in the first side of the substrate between the first and second device portions; forming an isolation trench in the at least one device layer, the isolation trench defining a first mesa including the first device portion and a second mesa including the second device portion; forming a sacrificial layer over the first and second mesas; thereafter forming a second trench in the second side of the substrate in and along the isolation trench whilst the sacrificial layer is disposed on the at least one device layer, the second trench extending between the first and second device portions; thereafter removing the sacrificial layer from the substrate; and thereafter breaking the substrate along the first and second trenches (134, 136) to form first and second dies, the first die including a first portion of the substrate and the first device portion, and the second die including a second portion of the substrate and the second device portion; wherein the first trench is a shaping trench configured to shape the substrate in a manner that limits total internal reflection in the semiconductor devices by causing more rays to strike a surface of the substrate at lower angles of incidence.