Abstract: An artificial blood vessel 10 comprises: an artificial blood vessel body 12; and a carbon material film 11 that covers the inner wall of the artificial blood vessel body 12. The inner wall which is covered by the carbon material film 11 is configured so that the water vapor adsorption isotherm shows desorption hysteresis.

Abstract: A film formation method is provided with a step for disposing a non-electroconductive long thin tube 102 in a chamber 101 in which the internal pressure thereof is adjustable, generating a plasma inside the long thin tube 102 in a state in which a starting material gas including a hydrocarbon is supplied, and forming a diamond-like carbon film on an inner wall surface of the long thin tube 102. The long thin tube 102 is disposed in the chamber 101 in a state in which a discharge electrode 125 is disposed in one end part of the long thin tube 102 and the other end part is open. An alternating-current bias is intermittently applied between the discharge electrode 125 and a counter electrode 126 provided so as to be separated from the long thin tube 102.

Abstract: An artificial blood vessel 10 comprises: an artificial blood vessel body 12; and a carbon material film 11 that covers the inner wall of the artificial blood vessel body 12. The inner wall which is covered by the carbon material film 11 is configured so that the water vapor adsorption isotherm shows desorption hysteresis.

Abstract: A film formation method is provided with a step for disposing a non-electroconductive long thin tube 102 in a chamber 101 in which the internal pressure thereof is adjustable, generating a plasma inside the long thin tube 102 in a state in which a starting material gas including a hydrocarbon is supplied, and forming a diamond-like carbon film on an inner wall surface of the long thin tube 102. The long thin tube 102 is disposed in the chamber 101 in a state in which a discharge electrode 125 is disposed in one end part of the long thin tube 102 and the other end part is open. An alternating-current bias is intermittently applied between the discharge electrode 125 and a counter electrode 126 provided so as to be separated from the long thin tube 102.

Abstract: There is provided a head mounted display comprising: an interface unit to which a cartridge can be connected; and at least one controller configured to activate a predetermined operation mode according to information acquired from the cartridge when the cartridge is connected to the interface unit.

Abstract: There is provided a head mounted display comprising: an interface unit configured to be connected with a cartridge; a determinator configured to determine whether the head mounted display is inside a specific area or not when the cartridge is connected to the interface unit; and at least one controller configured to execute, when the determinator determines that the head mounted display is inside the specific area, an application based on first data that is acquired from the cartridge, and to execute, when the determinator determines that the head mounted display is not inside the specific area, another application based on second data that is acquired from the cartridge.

Abstract: A head-mounted display includes an interface capable of connecting thereto a cartridge of which a return condition is recorded, and a controller configured to determine whether, when the cartridge is connected to the interface, the return condition has been satisfied. When it is determined that the return condition has been satisfied, the controller is configured to execute notification for requesting a user to return the cartridge.

Abstract: In one aspect, a head-mounted display includes displays, a front portion formed in such a manner as to surround at least a part of peripheral portions of the displays, and at least one temple portion connected to the front portion. An interface capable of connecting a cartridge thereto is provided in the at least one temple portion.

Abstract: A head-mounted display according to one aspect includes an interface capable of connecting a cartridge, and a controller configured to execute an application based on data obtained from the cartridge when the cartridge is connected to the interface. The controller is configured to explore other devices existing within an interconnectable area in executing the application, and communicate and connect with other devices associated to the application among other explored devices.

Abstract: A mobile electronic device that more effectively ensures the safety of the user is provided. A mobile electronic device includes a communication interface configured to transmit a signal, a sound output interface configured to output a sound, an operation detector configured to detect a user operation, and a controller configured to perform a first operation or a second operation when a predetermined operation is detected by the operation detector. In the first operation, the controller causes the sound output interface to output a predetermined alert sound and causes the communication interface to transmit a predetermined alert signal. In the second operation, the controller does not cause the sound output interface to output the predetermined alert sound and causes the communication interface to transmit the predetermined alert signal.

Abstract: In one aspect, a head-mounted display includes displays, a front portion formed in such a manner as to surround at least a part of peripheral portions of the displays, and at least one temple portion connected to the front portion. An interface capable of connecting a cartridge thereto is provided in the at least one temple portion.

Abstract: There is provided a head mounted display comprising: an interface unit to which a cartridge can be connected; and at least one controller configured to activate a predetermined operation mode according to information acquired from the cartridge when the cartridge is connected to the interface unit.

Abstract: There is provided a head mounted display comprising: an interface unit configured to be connected with a cartridge; a determinator configured to determine whether the head mounted display is inside a specific area or not when the cartridge is connected to the interface unit; and at least one controller configured to execute, when the determinator determines that the head mounted display is inside the specific area, an application based on first data that is acquired from the cartridge, and to execute, when the determinator determines that the head mounted display is not inside the specific area, another application based on second data that is acquired from the cartridge.

Abstract: A head-mounted display includes an interface capable of connecting thereto a cartridge of which a return condition is recorded, and a controller configured to determine whether, when the cartridge is connected to the interface, the return condition has been satisfied. When it is determined that the return condition has been satisfied, the controller is configured to execute notification for requesting a user to return the cartridge.

Abstract: A head mount display includes a display, a communication unit, and a controller configured to execute a first application on the basis of data acquired from outside. When receiving emergency information through the communication unit during execution of the first application, the controller is configured to execute a second application for displaying evacuation information on the display, after a non-display state in which information is not displayed on the display.

Abstract: There is provided a head mounted display comprising: an interface unit configured to be connected with a cartridge which stores an execution condition for an unmounting process for the cartridge; and at least one controller configured to perform, when the execution condition is satisfied, the unmounting process for the cartridge while the cartridge is connected to the interface unit.

Abstract: A head-mounted display according to one aspect includes an interface capable of connecting a cartridge, and a controller configured to execute an application based on data obtained from the cartridge when the cartridge is connected to the interface. The controller is configured to explore other devices existing within an interconnectable area in executing the application, and communicate and connect with other devices associated to the application among other explored devices.

Abstract: According to one embodiment, a semiconductor memory device comprises a first silicon pillar including a first pair of columnar portions and a first connection portion, a second silicon pillar including a second pair of columnar portions and a second connection portion in the shunt region, the second silicon pillar being adjacent to the first silicon pillar, a first interconnection connected to one of the first pair of columnar portions of the first silicon pillar, a second interconnection connected to one of the second pair of columnar portions of the second silicon pillar. The first interconnection is connected to a dummy bit line. The first interconnection and the second interconnection are connected on the same level.

Abstract: Each of ridges 7 on respective opposite side surfaces of a gasket 4 has a trapezoidal cross sectional shape defined by an outer tapered face 7a providing an outer peripheral surface, an inner tapered face 7b providing an inner peripheral surface and a flat face 7c providing a top end surface. The hardness of the gasket 4, the angle between the tapered faces 7a, 7b of the ridge 7, the height of the ridge 7 and the area of the flat top end face 7c of the ridge are so determined that the value of thrust for tightening up the coupling is between a predetermined minimum value and a predetermined maximum value.

Abstract: According to one embodiment, a semiconductor memory device comprises a first silicon pillar including a first pair of columnar portions and a first connection portion, a second silicon pillar including a second pair of columnar portions and a second connection portion in the shunt region, the second silicon pillar being adjacent to the first silicon pillar, a first interconnection connected to one of the first pair of columnar portions of the first silicon pillar, a second interconnection connected to one of the second pair of columnar portions of the second silicon pillar. The first interconnection is connected to a dummy bit line. The first interconnection and the second interconnection are connected on the same level.