mhurhangee/ep-ind-claims huggingface dataset:
An in-car-use multi-application execution device executing a plurality of applications in a prescribed cycle, the applications being applications of processing a taken image, the in-car-use multi-application execution device comprising: a dynamic processing time prediction unit predicting, in each prescribed cycle, a processing time of each application; a multi-application controller scheduling each application on the basis of the processing time predicted by the dynamic processing time prediction unit; and a multi-application execution unit executing processes of the plurality of applications on the basis of a result of the scheduling in the multi-application controller, wherein, if the multi-application execution unit determines as a result of the scheduling in the multi-application controller that an application failing to complete a process in a preset prescribed cycle exists, the multi-application execution unit terminates the application or degrades a function of the application on the basis of a preset priority order; and the multi-application execution unit classifies the applications according to safety and convenience functions, and executes scheduling such that a process of an application related to safety continues even after an end of the prescribed cycle and a process of an application related to convenience stops on the end of the prescribed cycle. a dynamic processing time prediction unit predicting, in each prescribed cycle, a processing time of each application; a multi-application controller scheduling each application on the basis of the processing time predicted by the dynamic processing time prediction unit; and a multi-application execution unit executing processes of the plurality of applications on the basis of a result of the scheduling in the multi-application controller, wherein, if the multi-application execution unit determines as a result of the scheduling in the multi-application controller that an application failing to complete a process in a preset prescribed cycle exists, the multi-application execution unit terminates the application or degrades a function of the application on the basis of a preset priority order; and the multi-application execution unit classifies the applications according to safety and convenience functions, and executes scheduling such that a process of an application related to safety continues even after an end of the prescribed cycle and a process of an application related to convenience stops on the end of the prescribed cycle.
A method of operating a first robot which transmits and receives image data to and from a second robot for communication during a video call between a first user using the first robot and a second user using the second robot, the method comprising: transmitting first image data acquired by a first camera included in the first robot to the second robot, detecting (S920, S1260, S1350, S1450) movement of the second user from second image data received from the second robot, wherein the second image data is acquired by a second camera moving according to movement of the second robot, the movement of the second robot being determined in response to movement of the first user detected from the first image data; and determining (S930, S1280, S1365, S1460) a motion responding to the detected movement of the second user based on information obtained by compensating (S1270, S1360, S1455) the detected movement information of the second user with movement information of the first user, wherein the movement information of the first user is determined based on information detected by the first robot or received from the second robot; performing (S940, S1290) the determined motion by the first robot. transmitting first image data acquired by a first camera included in the first robot to the second robot, detecting (S920, S1260, S1350, S1450) movement of the second user from second image data received from the second robot, wherein the second image data is acquired by a second camera moving according to movement of the second robot, the movement of the second robot being determined in response to movement of the first user detected from the first image data; and determining (S930, S1280, S1365, S1460) a motion responding to the detected movement of the second user based on information obtained by compensating (S1270, S1360, S1455) the detected movement information of the second user with movement information of the first user, wherein the movement information of the first user is determined based on information detected by the first robot or received from the second robot; performing (S940, S1290) the determined motion by the first robot.
An operation method of an electronic device, comprising: determining whether the electronic device is in a landscape mode; when the electronic device is in the landscape mode, detecting a grip direction; and according to the detected grip direction: when a first direction grip is detected, changing a sound pressure reference value for a speaker; when a second direction grip is detected, changing a reference value for an illuminance sensor; and when a two-direction grip is detected, changing both the sound pressure reference value for the speaker and the reference value for the illuminance sensor; wherein the first direction grip is indicative of a state where a user grips a region of the speaker in a first end of the electronic device, the second direction grip is indicative of a state where a user grips a region of the illuminance sensor in a second end of the electronic device, and the two-direction grip is indicative of a state where a user grips both a region of the speaker in the first end of the electronic device and a region of the illuminance sensor in the second end of the electronic device. determining whether the electronic device is in a landscape mode; when the electronic device is in the landscape mode, detecting a grip direction; and according to the detected grip direction: when a first direction grip is detected, changing a sound pressure reference value for a speaker; when a second direction grip is detected, changing a reference value for an illuminance sensor; and when a two-direction grip is detected, changing both the sound pressure reference value for the speaker and the reference value for the illuminance sensor; wherein the first direction grip is indicative of a state where a user grips a region of the speaker in a first end of the electronic device, the second direction grip is indicative of a state where a user grips a region of the illuminance sensor in a second end of the electronic device, and the two-direction grip is indicative of a state where a user grips both a region of the speaker in the first end of the electronic device and a region of the illuminance sensor in the second end of the electronic device. when a first direction grip is detected, changing a sound pressure reference value for a speaker; when a second direction grip is detected, changing a reference value for an illuminance sensor; and when a two-direction grip is detected, changing both the sound pressure reference value for the speaker and the reference value for the illuminance sensor; wherein the first direction grip is indicative of a state where a user grips a region of the speaker in a first end of the electronic device, the second direction grip is indicative of a state where a user grips a region of the illuminance sensor in a second end of the electronic device, and the two-direction grip is indicative of a state where a user grips both a region of the speaker in the first end of the electronic device and a region of the illuminance sensor in the second end of the electronic device.
A method of formation fluid sampling comprising: analyzing formation fluid sample capture data to determine distinguishing features indicative of whether a successful formation fluid sample capture has occurred within a downhole tool (120, 122, 124, 130); characterised by prioritizing, based on the analysis, the sample capture data for transmission to a surface system; wherein the sample capture data comprises sample flow line pressure data with respect to time. analyzing formation fluid sample capture data to determine distinguishing features indicative of whether a successful formation fluid sample capture has occurred within a downhole tool (120, 122, 124, 130); characterised by prioritizing, based on the analysis, the sample capture data for transmission to a surface system; wherein the sample capture data comprises sample flow line pressure data with respect to time.
A brain-stimulating device comprising: an EEG measurement unit configured to measure an EEG signal of a brain; and a stimulation unit configured to apply a spindle-like stimulation to the brain in response to the generation of a slow oscillation included in the EEG signal, wherein the spindle-like stimulation comprises a spindle component and a slow oscillation component, wherein a frequency of the spindle component is within the range of 11-16 Hz, and wherein a frequency of the slow oscillation component is less than 1 Hz. an EEG measurement unit configured to measure an EEG signal of a brain; and a stimulation unit configured to apply a spindle-like stimulation to the brain in response to the generation of a slow oscillation included in the EEG signal, wherein the spindle-like stimulation comprises a spindle component and a slow oscillation component, wherein a frequency of the spindle component is within the range of 11-16 Hz, and wherein a frequency of the slow oscillation component is less than 1 Hz.
A lithium secondary battery comprising: a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder having a layered structure and a nickel content accounting for 50 atm% to 75 atm% of total transition metals, wherein the lithium composite transition metal oxide powder has a lithium-oxygen (Li-O) interlayer spacing change rate of 3% or less in a state-of-charge range of 58% to 86%, wherein the lithium-oxygen (Li-O) interlayer spacing is measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d]O 2 wherein, in Chemical Formula 1, M is a doping element and includes Zr and Co, and 0.9≤x≤1.2, 0.50≤a≤0.75, 0<b<0.4, 0<c<0.4, and 0<d<0.2. a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder having a layered structure and a nickel content accounting for 50 atm% to 75 atm% of total transition metals, wherein the lithium composite transition metal oxide powder has a lithium-oxygen (Li-O) interlayer spacing change rate of 3% or less in a state-of-charge range of 58% to 86%, wherein the lithium-oxygen (Li-O) interlayer spacing is measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d]O 2 wherein, in Chemical Formula 1, M is a doping element and includes Zr and Co, and 0.9≤x≤1.2, 0.50≤a≤0.75, 0<b<0.4, 0<c<0.4, and 0<d<0.2.
A method for diagnosing a cardiac pathology in a subject, the method comprising: a) measuring, directly or indirectly by measuring abundance levels of cDNAs, amplified RNAs or DNAs, or quantities or activities of RNAs, the level of a plurality of biomarkers in a biological sample derived from the subject, wherein the plurality of biomarkers comprises one IncRNA biomarker having a cDNA sequence selected from the group consisting of SEQ ID No 33 and a variant sharing at least 90% nucleotide sequence identity thereto; and b) analyzing the level of said IncRNA biomarker or variant sharing at least 90% nucleotide sequence identity thereto, in conjunction with respective reference value ranges for said IncRNA biomarker, wherein differential expression of the IncRNA biomarker in the biological sample compared to the IncRNA biomarker in a control sample from a normal subject indicates that the subject has a cardiac pathology. a) measuring, directly or indirectly by measuring abundance levels of cDNAs, amplified RNAs or DNAs, or quantities or activities of RNAs, the level of a plurality of biomarkers in a biological sample derived from the subject, wherein the plurality of biomarkers comprises one IncRNA biomarker having a cDNA sequence selected from the group consisting of SEQ ID No 33 and a variant sharing at least 90% nucleotide sequence identity thereto; and b) analyzing the level of said IncRNA biomarker or variant sharing at least 90% nucleotide sequence identity thereto, in conjunction with respective reference value ranges for said IncRNA biomarker,
A virtual machine comprising: a computer including a memory, a processor, a timer and an input/output (I/O) device; and a virtual machine monitor to be loaded on the memory and executed by the processor, the virtual machine monitor controlling execution of at least one guest operating system on the processor, accepting a process request from the guest OS to the computer and handing over a result of execution made by the computer in response to the process request to the guest OS, characterised in that the virtual machine monitor is arranged to cause the processor to function as: a unit to receive a timer setting from the guest OS, the timer setting being for making the timer generate a timer interrupt after a lapse of a setting period; a timer changing unit to change the setting period set in the timer setting so that a ratio of a first I/O wait time and to a first I/O process time without the first I/O wait time becomes approximate to a ratio of a second I/O wait time to a second I/O process time, the first I/O wait time being a time recognized by the guest OS as an I/O wait time, the first I/O process time being a time recognized by the guest OS as an I/O process time, the second I/O wait time being a time recognized by the virtual machine monitor as an I/O wait time, and the second I/O process time being a time recognized by the virtual machine monitor as an I/O process time; a unit to set the timer setting with the changed setting period in the timer; and a unit to notify, when receiving the timer interrupt, the guest OS of occurrence of the timer interrupt. a computer including a memory, a processor, a timer and an input/output (I/O) device; and a virtual machine monitor to be loaded on the memory and executed by the processor, the virtual machine monitor controlling execution of at least one guest operating system on the processor, accepting a process request from the guest OS to the computer and handing over a result of execution made by the computer in response to the process request to the guest OS, a unit to receive a timer setting from the guest OS, the timer setting being for making the timer generate a timer interrupt after a lapse of a setting period; a timer changing unit to change the setting period set in the timer setting so that a ratio of a first I/O wait time and to a first I/O process time without the first I/O wait time becomes approximate to a ratio of a second I/O wait time to a second I/O process time, the first I/O wait time being a time recognized by the guest OS as an I/O wait time, the first I/O process time being a time recognized by the guest OS as an I/O process time, the second I/O wait time being a time recognized by the virtual machine monitor as an I/O wait time, and the second I/O process time being a time recognized by the virtual machine monitor as an I/O process time; a unit to set the timer setting with the changed setting period in the timer; and a unit to notify, when receiving the timer interrupt, the guest OS of occurrence of the timer interrupt.
A wellbore arrangement for controlling heat transfer between a tubular member located in a wellbore and a well system, the arrangement comprising: a tubular member arranged to transport a produced fluid from a subterranean reservoir to a surface structure, wherein the produced fluid comprises or exhibits a pressure gradient in a direction along the length of the tubular member; a lower member provided between the tubular member and a wall of a well system; a space extending in an uphole direction from the lower member and between the tubular member and a wall of the well system; an insulating fluid at least partially filling the space; and a control arrangement for adjusting a pressure of the insulating fluid in the space such that a pressure gradient of the insulating fluid in a direction along the length of the tubular member is controlled to match or track the pressure gradient of the produced fluid. a tubular member arranged to transport a produced fluid from a subterranean reservoir to a surface structure, wherein the produced fluid comprises or exhibits a pressure gradient in a direction along the length of the tubular member; a lower member provided between the tubular member and a wall of a well system; a space extending in an uphole direction from the lower member and between the tubular member and a wall of the well system; an insulating fluid at least partially filling the space; and a control arrangement for adjusting a pressure of the insulating fluid in the space such that a pressure gradient of the insulating fluid in a direction along the length of the tubular member is controlled to match or track the pressure gradient of the produced fluid.
A rotary connector device comprising: a fixed body; a rotation body that is rotatable about a rotation axis with respect to the fixed body and that is assembled to the fixed body in a manner to form a first space between the rotation body and the fixed body; and a connector that has a second space inside communicating with the first space and that is coupled to the fixed body, wherein an exposed conductor portion provided at one end of a cable is connected to an electrode provided in the second space of the connector, the cable extends from the second space to the first space and is arranged such that the other end of the cable is connected to the rotation body, the connector comprises a cable cutting member in the second space, and when the cable is pulled due to rotation of the rotation body, the cable cutting member is configured to cut the cable before the exposed conductor portion connected to the electrode of the connector is disconnected, wherein the length of the cable cutting member in an extending direction along the circumferential direction of the rotation axis is set such that a tip of the cable cutting member in the extending direction comes into contact with the cable when the cable is pulled due to the rotation of the rotation body, characterized in that the length of the cable cutting member is provided such that the cable cutting member intersects an imaginary line connecting the electrode of the connector and an opening provided in an outer-circumferential cylindrical portion of the fixed body and opens the second space to the first space. a fixed body; a rotation body that is rotatable about a rotation axis with respect to the fixed body and that is assembled to the fixed body in a manner to form a first space between the rotation body and the fixed body; and a connector that has a second space inside communicating with the first space and that is coupled to the fixed body, wherein an exposed conductor portion provided at one end of a cable is connected to an electrode provided in the second space of the connector, the cable extends from the second space to the first space and is arranged such that the other end of the cable is connected to the rotation body, the connector comprises a cable cutting member in the second space, and when the cable is pulled due to rotation of the rotation body, the cable cutting member is configured to cut the cable before the exposed conductor portion connected to the electrode of the connector is disconnected, wherein the length of the cable cutting member in an extending direction along the circumferential direction of the rotation axis is set such that a tip of the cable cutting member in the extending direction comes into contact with the cable when the cable is pulled due to the rotation of the rotation body, characterized in that the length of the cable cutting member is provided such that the cable cutting member intersects an imaginary line connecting the electrode of the connector and an opening provided in an outer-circumferential cylindrical portion of the fixed body and opens the second space to the first space.
A computing system, comprising: a host; and a memory system coupled to the host, wherein the host is configured to: send a queued command request to the memory system; receive a command response from the memory system that indicates the memory system is ready to add commands to a command queue; and send a command that includes a command descriptor block for the memory system to place in the command queue, wherein the memory system is configured to add the command to the command queue of the memory system while a different command that was previously sent by the host and added to the command queue is concurrently being executed in the memory system on a data bus. a host; and a memory system coupled to the host, wherein the host is configured to: send a queued command request to the memory system; receive a command response from the memory system that indicates the memory system is ready to add commands to a command queue; and send a command that includes a command descriptor block for the memory system to place in the command queue, wherein the memory system is configured to add the command to the command queue of the memory system while a different command that was previously sent by the host and added to the command queue is concurrently being executed in the memory system on a data bus. send a queued command request to the memory system; receive a command response from the memory system that indicates the memory system is ready to add commands to a command queue; and send a command that includes a command descriptor block for the memory system to place in the command queue, wherein the memory system is configured to add the command to the command queue of the memory system while a different command that was previously sent by the host and added to the command queue is concurrently being executed in the memory system on a data bus.
A genetically modified cell comprising: - a pair of zinc finger nucleases that bind to SEQ ID NO:23 and SEQ ID NO:24 and make a double-stranded break in an endogenous human beta-hemoglobin (Hbb) gene; and - a genomic modification within 1-300 base pairs of SEQ ID NO:23 or SEQ ID NO:24 of the Hbb gene following double-stranded break by the pair of zinc finger nucleases, wherein the pair comprises the zinc finger proteins designated 33488 and 33501; 33488 and 47817; 47773 and 33501; or 47773 and 47817 in Table 1, and wherein the genomic modification comprises an insertion and/or deletion. - a pair of zinc finger nucleases that bind to SEQ ID NO:23 and SEQ ID NO:24 and make a double-stranded break in an endogenous human beta-hemoglobin (Hbb) gene; and - a genomic modification within 1-300 base pairs of SEQ ID NO:23 or SEQ ID NO:24 of the Hbb gene following double-stranded break by the pair of zinc finger nucleases,