Abstract: A testing device includes: at least one light source that can be lit at different positions; a light source control unit that controls the lighting of the light source(s); a rotation mechanism that rotates a chip; an imaging unit that acquires a plurality of individual images by shooting, at each of the different positions at different times respectively, the chip located, by being rotated by the rotation mechanism, in an illuminated area illuminated by the light source(s); an image generation unit that generates an analysis image based on the plurality of individual images; and an information acquisition unit that acquires target object information on the state of the test object or of the storage container based on the analysis image. The brightness value of each pixel in the analysis image is calculated using the brightness values of the pixels at the same position among the plurality of individual images.

Abstract: An ejection device capable of preventing a discharge part from contacting an object is provided. The ejection device has a discharge part, a light projecting part, a light receiving part and a controller. The discharge part discharges a droplet to an object. The light projecting part projects a light between the discharge part and the object to form a light path across the object, and the light receiving part receives the light projected by the light projecting part. The controller stops driving the discharge part when the light receiving part does not receive the light.

Abstract: An ejection device includes a discharger that discharges a droplet on an object; a motor that moves the discharger; an imaging device that captures an image of the object; and a controller that: controls the discharger and the motor; and receives the captured image from the imaging device. The discharger outputs a position adjusting mark on the object before discharging the droplet on the object. The controller adjusts a discharge position of the droplet based on the captured image of the object with the position adjusting mark.

Abstract: An ejection device capable of preventing a discharge part from contacting an object is provided. The ejection device has a discharge part, a light projecting part, a light receiving part and a controller. The discharge part discharges a droplet to an object. The light projecting part projects a light between the discharge part and the object to form a light path across the object, and the light receiving part receives the light projected by the light projecting part. The controller stops driving the discharge part when the light receiving part does not receive the light.

Abstract: An ejection device includes a discharger that discharges a droplet on an object; a motor that moves the discharger; an imaging device that captures an image of the object; and a controller that: controls the discharger and the motor; and receives the captured image from the imaging device. The discharger outputs a position adjusting mark on the object before discharging the droplet on the object. The controller adjusts a discharge position of the droplet based on the captured image of the object with the position adjusting mark.

Abstract: Disclosed is a television broadcast receiver including: a reception member to receive a television broadcast signal with added time information; an acquirement member to acquire broadcast program information; program information storage member to store the broadcast program information; a time information storage member to store the time information; judgment member to judge whether a time period from interception of a power supply to re-activation is longer than a predetermined time or not, based on time information stored just before the interception and time information received just after the re-activation, the judgment being performed when the power supply of the television broadcast receiver is activated; and acquirement control member to make the acquirement member acquire new broadcast program information when the judgment member judges that the time period is longer than the predetermined time.

Abstract: Disclosed is a television broadcast receiver including: a reception member to receive a television broadcast signal with added time information; an acquirement member to acquire broadcast program information; program information storage member to store the broadcast program information; a time information storage member to store the time information; judgment member to judge whether a time period from interception of a power supply to re-activation is longer than a predetermined time or not, based on time information stored just before the interception and time information received just after the re-activation, the judgment being performed when the power supply of the television broadcast receiver is activated; and acquirement control member to make the acquirement member acquire new broadcast program information when the judgment member judges that the time period is longer than the predetermined time.

Abstract: When a TS (Transport Stream) generator generates a TS, the TS is modulated by a signal modulator and outputted to a tuner set. In the tuner set, various noises generated by a noise source are added to an input signal, reception processing is performed, and then the resultant signal is outputted to a LVDS (Law Voltage Differential Signal) converter. The LVDS converter converts the input signal into a LVDS of the same format as TS, and outputs the LVDS to an error rate measuring device. The error rate measuring device find a difference between the generated TS and the inputted LVDS while adjusting a synchronization and outputs the difference to a personal computer. The personal computer compares the inputted difference with a predetermined BER (Bit Error Rate), and determines performance regarding the reception process of the tuner set based on the comparison result.

Abstract: When a TS (Transport Stream) generator generates a TS, the TS is modulated by a signal modulator and outputted to a tuner set. In the tuner set, various noises generated by a noise source are added to an input signal, reception processing is performed, and then the resultant signal is outputted to a LVDS (Law Voltage Differential Signal) converter. The LVDS converter converts the input signal into a LVDS of the same format as TS, and outputs the LVDS to an error rate measuring device. The error rate measuring device find a difference between the generated TS and the inputted LVDS while adjusting a synchronization and outputs the difference to a personal computer. The personal computer compares the inputted difference with a predetermined BER (Bit Error Rate), and determines performance regarding the reception process of the tuner set based on the comparison result.