Abstract: A creation device includes processing circuitry configured to collect pieces of information about IoT (Internet of Things) apparatuses connected to IoT gateways, and white lists stored in the IoT gateways, the white lists specifying content of communication allowed for each of the IoT apparatuses, calculate a feature value showing communication features of IoT apparatuses for each of the IoT gateways, and degrees of similarity in the feature value among the IoT gateways, based on the collected pieces of information about the IoT apparatuses, and extract, if any of the calculated similarity degrees is equal to or above a predetermined threshold, pieces of white list information about IoT apparatuses to mutually complement white lists stored in IoT gateways, from pieces of white list information about IoT apparatuses included in the white lists.

Abstract: Provided is an IoT GW (10), including a learning unit (131) configured to create, for each IoT device connected to the IoT GW (10), a normal communication model (122) that has learned a normal communication pattern of the IoT device; and a determination unit (132) configured to: determine, for learning by the learning unit (131), whether to interrupt, finish, continue, and resume learning based on a load of a learning environment; and control learning processing by the learning unit (131) based on a result of determination.

Abstract: The present invention provides a new system that allows an easier operation of a moving object. The present invention provides a moving object operation system including: a moving object; and an operation signal transmitter. The moving object includes a signal receipt unit that receives an operation signal. The transmitter includes: an auxiliary tool; a storage unit that contains conversion information; a movement information acquisition unit that acquires auxiliary tool movement information; a conversion unit that converts the acquired movement information into the operation signal based on the conversion information; and a signal transmission unit that transmits the operation signal. The conversion information includes auxiliary tool movement information and operation signal information for instructing the moving object in how to move, and those are associated with each other.

Abstract: Provided is an IoT GW (10), including a learning unit (131) configured to create, for each IoT device connected to the IoT GW (10), a normal communication model (122) that has learned a normal communication pattern of the IoT device; and a determination unit (132) configured to: determine, for learning by the learning unit (131), whether to interrupt, finish, continue, and resume learning based on a load of a learning environment; and control learning processing by the learning unit (131) based on a result of determination.

Abstract: The present invention provides a new system that allows an easier operation of a moving object. The present invention provides a moving object operation system (1) including a moving object (20) and an operation signal transmitter (10) for the moving object (20). The moving object (20) includes a signal receipt unit (201) that receives an operation signal from the operation signal transmitter (10). The operation signal transmitter (10) includes a storage unit (101) that contains conversion information, a motion information acquisition unit (102) that acquires motion information of an operator, a conversion unit (103) that converts the acquired motion information into the operation signal to the moving object (20) based on the conversion information, and a signal transmission unit (104) that transmits the operation signal to the moving object (20).

Abstract: A communication terminal apparatus includes processing circuitry configured to collect communication of an application and control the communication of the application based on a first control condition, analyze the communication collected to determine whether the application is a communication control target, and generate the first control condition based on a normal communication range of the application that is the communication control target, and transmit at least a part of first shared information including identification information about the application and the first control condition to a second communication terminal apparatus that is different from the communication terminal apparatus.

Abstract: A creation device includes processing circuitry configured to collect pieces of information about IoT (Internet of Things) apparatuses connected to IoT gateways, and white lists stored in the IoT gateways, the white lists specifying content of communication allowed for each of the IoT apparatuses, calculate a feature value showing communication features of IoT apparatuses for each of the IoT gateways, and degrees of similarity in the feature value among the IoT gateways, based on the collected pieces of information about the IoT apparatuses, and extract, if any of the calculated similarity degrees is equal to or above a predetermined threshold, pieces of white list information about IoT apparatuses to mutually complement white lists stored in IoT gateways, from pieces of white list information about IoT apparatuses included in the white lists.

Abstract: A voltage application detection unit detects an impedance of an oxygen sensor, which outputs a signal corresponding to a concentration of oxygen, based on a current change amount in the oxygen sensor caused by application of a voltage to the oxygen sensor. A current application detection unit detects the impedance based on a voltage change amount generated across the oxygen sensor caused by application of a current to the oxygen sensor. A detection switching unit switches between the voltage application detection unit and the current application detection unit to detect the impedance based on a state of the oxygen sensor.

Abstract: A drone maneuvering system includes a drone and a maneuvering signal transmitter set. The maneuvering signal transmitter set includes a first transmitter that controls at least forward, reverse, left, and right movement of the drone, and a second transmitter that controls vertical movement and rotational movement of the drone. The first transmitter includes a first auxiliary tool and transmits to the drone a maneuvering signal including tilt information of the first auxiliary tool that accompanies the actions of a pilot, in which the forward, reverse, left, and right movements of the drone are imaged. The second transmitter includes a second auxiliary tool and transmits to the drone a maneuvering signal including rotation information of the second auxiliary tool that accompanies the actions of the pilot, in which the vertical movements and rotational movements of the drone are imaged. The drone operates in accordance with the received maneuvering signals.

Abstract: The present invention provides a new system that allows an easier operation of a moving object. The present invention provides a moving object operation system (1) including a moving object (20) and an operation signal transmitter (10) for the moving object (20). The moving object (20) includes a signal receipt unit (201) that receives an operation signal from the operation signal transmitter (10). The operation signal transmitter (10) includes a storage unit (101) that contains conversion information, a motion information acquisition unit (102) that acquires motion information of an operator, a conversion unit (103) that converts the acquired motion information into the operation signal to the moving object (20) based on the conversion information, and a signal transmission unit (104) that transmits the operation signal to the moving object (20).

Abstract: The present invention provides a new system that allows an easier operation of a moving object. The present invention provides a moving object operation system including: a moving object; and an operation signal transmitter. The moving object includes a signal receipt unit that receives an operation signal. The transmitter includes: an auxiliary tool; a storage unit that contains conversion information; a movement information acquisition unit that acquires auxiliary tool movement information; a conversion unit that converts the acquired movement information into the operation signal based on the conversion information; and a signal transmission unit that transmits the operation signal. The conversion information includes auxiliary tool movement information and operation signal information for instructing the moving object in how to move, and those are associated with each other.

Abstract: The present invention is intended to provide a body motion grading system that allows the grading less likely to be affected by the difference among the builds of target persons subjected to grading. The present invention provides body motion grading system (1) including body position information acquisition unit (11) configured to acquire body position information of a target person subjected to grading in time series, body part recognition unit (12) configured to recognize a position of each part in the acquired body position information in time series and relatively recognize positions of body parts with reference to a certain body part, body motion grading unit (13) configured to conduct grading by comparing a position of a body part recognized by the body part recognition unit with a preliminarily prepared comparison condition in time series, and grading result display unit (14) configured to display a grading result.

Abstract: The present invention provides a new system that allows a safer operation of a moving object. The present invention provides a moving object operation system (1) including: a moving object (11); a plurality of operation signal transmitters (12A, 12B) for the moving object; and a synchronization unit (13). The moving object (11) includes: a signal receipt unit (111) that receives operation signals from the operation signal transmitters (12A, 12B). The operation signal transmitters (12A, 12B) include signal transmission units (121A, 121B) that transmit the operation signals to the moving object (11), respectively. The synchronization unit (13) is a unit that synchronizes the operation signal transmitters (12A, 12B).

Abstract: A voltage application detection unit detects an impedance of an oxygen sensor, which outputs a signal corresponding to a concentration of oxygen, based on a current change amount in the oxygen sensor caused by application of a voltage to the oxygen sensor. A current application detection unit detects the impedance based on a voltage change amount generated across the oxygen sensor caused by application of a current to the oxygen sensor. A detection switching unit switches between the voltage application detection unit and the current application detection unit to detect the impedance based on a state of the oxygen sensor.

Abstract: A drone maneuvering system includes a drone and a maneuvering signal transmitter set. The maneuvering signal transmitter set includes a first transmitter that controls at least forward, reverse, left, and right movement of the drone, and a second transmitter that controls vertical movement and rotational movement of the drone. The first transmitter includes a first auxiliary tool and transmits to the drone a maneuvering signal including tilt information of the first auxiliary tool that accompanies the actions of a pilot, in which the forward, reverse, left, and right movements of the drone are imaged. The second transmitter includes a second auxiliary tool and transmits to the drone a maneuvering signal including rotation information of the second auxiliary tool that accompanies the actions of the pilot, in which the vertical movements and rotational movements of the drone are imaged. The drone operates in accordance with the received maneuvering signals.

Abstract: The present invention relates to a method of enhancing endurance of a human subject through administration of alanyl-glutamine or alanyl-glutamine salt. The invention includes unexpected discovery of alanyl-glutamine or alanyl-glutamine salt enhancing durability and endurance of human subject independent of an increase in the blood glutamine level.

Abstract: The present invention provides a new system that allows a safer operation of a moving object. The present invention provides a moving object operation system (1) including: a moving object (11); a plurality of operation signal transmitters (12A, 12B) for the moving object; and a synchronization unit (13). The moving object (11) includes: a signal receipt unit (111) that receives operation signals from the operation signal transmitters (12A, 12B). The operation signal transmitters (12A, 12B) include signal transmission units (121A, 121B) that transmit the operation signals to the moving object (11), respectively. The synchronization unit (13) is a unit that synchronizes the operation signal transmitters (12A, 12B).

Abstract: The invention provides a method of increasing blood flow in a subject in need of increased blood flow by administering citrulline or a salt thereof and arginine or a salt thereof to the subject.

Abstract: A three-dimensional user interface device includes a coordinate setting unit setting a three-dimensional coordinate space (3DCS) on the basis of a line-of-sight image, a virtual data generation unit generating three-dimensional area data representing a transparent virtual three-dimensional operation area (V3DOA) arranged in an arbitrary position in the 3DCS in a state in which at least a boundary of the area is visible, a display processing unit displaying a V3DOA represented by the generated three-dimensional area data by using a visible space in the 3DCS corresponding to a space shown on the line-of-sight image as a display reference, and an operation detection unit detecting an operation performed by the operator with the specific region in the V3DOA on the basis of the three-dimensional position acquired with respect to the specific region of the operator in the 3DCS and a position of the V3DOA in the 3DCS.

Abstract: A movement state presentation device includes an information acquisition unit that acquires movement information relating to a plurality of moving objects including a current position, a position prediction unit that predicts each of positions of the plurality of moving objects at each of a plurality of future time points common to the plurality of moving objects based on the movement information acquired by the information acquisition unit, and a display processing unit that causes the current positions of the plurality of moving objects to be displayed on a display unit using the movement information acquired by the information acquisition unit, and causes the positions of the plurality of moving objects at each of the future time points to be sequentially displayed on the display unit in chronological order at a display interval common to the plurality of moving objects based on the positions predicted by the position prediction unit.