Abstract:
A lighting control device includes: a power supply circuit and a first controller. The first controller includes a first control circuit, a signal output circuit and a first interface. The first control circuit is configured to allow the signal output circuit to output a light control signal to the power supply circuit. The signal output circuit is configured to output the light control signal for indicating magnitude of the output power to the power supply circuit. The first control circuit is configured to transmit control information to and receive the control information from a second controller through the first interface. When the control information is received from the second controller through the first interface, the first control circuit is configured to allow the signal output circuit to output the light control signal corresponding to the control information to the power supply circuit.
Abstract:
A technology is disclosed that provides an imaging control device and the like capable of actualizing immersive zoom enlargement. The technology includes: an imaging unit 701 that includes at least two optical systems disposed at an interval of a predetermined baseline-length; a calculating unit 704 that, based on a predetermined reference zoom magnification, a desired zoom magnification in relation to the predetermined reference zoom magnification, and a distance from the imaging unit to a subject, calculates an immersion distance from a virtual position in which the imaging unit should be disposed to actualize the desired zoom magnification to an actual position of the imaging unit and calculates, based on the immersion distance, an interval between the at least two optical systems when the at least two optical systems are disposed on an extension line of a line connecting together the at least two optical systems to actualize a desired zoom magnification that is similar to that when the imaging unit is disposed in the virtual position and the desired zoom magnification is actualized; and a control unit 705 that changes the predetermined baseline-length to the calculated interval and disposes the at least two optical systems. The imaging unit images the subject in the above-described disposal state.
Abstract:
The present distribution system is formed by a plurality of clients enabled to receive a plurality of channels of signals and a distribution server enabled to output the plurality of channels of signals to respective clients. Each of the plurality of clients includes a switch unit and a transmission unit. The distribution server includes a plurality of transceiver units, a delay amount determining unit and a delay adjusting unit. The respective transceiver units output the plurality of channels of signals to the plurality of clients and receive selection information and dependent information from the respective plurality of clients. The delay amount determining unit determines delay amount to be instructed to the respective plurality of transceiver units based on the dependent information. The delay adjusting unit controls delay amount for the respective plurality of transceiver units based on the delay amount determined by the delay amount determining unit.
Abstract:
Disclosed is an optical device which includes: an optical component configured to be electrically actuated such that a light transmission state is variable; a driver circuit for the optical component; a power source unit for driving the optical component; a rim for supporting the optical component; a temple having front and rear ends and connected at the front end to the rim; and an earpiece formed at the rear end of the temple. The power source unit includes a secondary battery, a power switch, a power switch control portion, and a use-status sensing portion for sensing the status of use by a user of the optical device. The power switch control portion performs control to turn off the power switch when the use-status sensing portion does not sense any use by the user of the optical device.