Abstract: A controlling apparatus includes: an acquisition unit configured to acquire sheet information of each of a plurality of pages included in job data for executing print processing in a printing apparatus; a decision unit configured to decide a print speed in the print processing based on the sheet information acquired by the acquisition unit; and a control unit configured to control the printing apparatus based on the print speed decided by the decision unit and data generated from the job data and processible by the printing apparatus. Even in a case where sheet types represented by the pieces of sheet information are mixed in the plurality of pages, the decision unit decides a print speed to be commonly applied to the sheet types of the plurality of pages.

Abstract: An information processing apparatus includes an obtaining unit that obtains a job including a plurality of pages, and a determining unit that determines a page group constituted by consecutive sheets of a same sheet type, from the plurality of pages included in the job obtained by the obtaining unit. A setting unit sets a transport speed of sheets in the page group determined by the determining unit.

Abstract: A measuring device includes an insertion detecting switch, a measuring section, a radio communication section, and a microcontroller. The insertion detecting switch is configured to detect a specimen being inserted into the measuring device. The measuring section is configured to measure a blood sugar level of blood deposited on the specimen. The radio communication section is configured to transmit a puncturing allowing signal to a puncturing device. The microcontroller is configured to control the radio communication section to transmit the puncturing allowing signal when the insertion detecting switch detects the specimen being inserted into the measuring device.

Abstract: A measuring device includes an insertion detecting switch, a measuring section, a radio communication section, and a microcontroller. The insertion detecting switch is configured to detect a specimen being inserted into the measuring device. The measuring section is configured to measure a blood sugar level of blood deposited on the specimen. The radio communication section is configured to transmit a puncturing allowing signal to a puncturing device. The microcontroller is configured to control the radio communication section to transmit the puncturing allowing signal when the insertion detecting switch detects the specimen being inserted into the measuring device.

Abstract: Provided is a puncture tool having no possibility of starting the puncture operation of a puncture needle unexpectedly when the puncture tool is operated for a purpose other than measurement of a biological sample and also provided are a device for measuring biological sample and a system for measuring biological sample. A puncture tool (100) comprises a puncture mechanism (110), a puncture mechanism control section (120) which controls puncture operation of the puncture mechanism (110), a wireless communication section (140) which performs wireless authentication by receiving a wireless signal from an external registration apparatus (200), and a puncture control circuit (150) which removes restriction on puncture prohibition of the puncture mechanism control section (120) when authentication is established at the wireless communication section (140).

Abstract: A wireless blood glucose meter (2) has a blood glucose level detector (21), a transmitter (22), a receiver (23), a storage component (24), and a transmission power determiner (25). Whether or not an acknowledge signal has been received and the transmission power when the transmitter (22) has transmitted a blood glucose level are stored as history information in the storage component (24), and the transmission power determiner (25) determines the transmission power when the transmitter (22) transmits on the basis of the history information stored in the storage component (24).

Abstract: A blood glucose measurement device (50) comprises a test piece insertion unit (10) for inserting, holding, and electrically connecting a test piece on which an electrode pattern has been formed, a measurement circuit (16) for electrochemically measuring a biological sample that has been placed in the form of a spot on the test piece, a communication circuit (15) for transmitting the result of measurement with the measurement circuit (16) by wireless communication using an antenna electrode (2C) equipped with the test piece, and a switch (14) that is connected to the test piece insertion unit (10) for switching between the measurement circuit (16) and the communication circuit (15).

Abstract: A biological sample measurement apparatus includes a measurement component for detecting a blood glucose level, a transmitter for sending the detected blood glucose level to a portable terminal, a receiver for receiving an acknowledge signal and a portable terminal ID sent from the portable terminal, a storage component for associating the communication frequency at the point of successful communication with the received portable terminal ID and storing it as communication success history along with successful information from the past, and a communication frequency selector for selecting a communication frequency on the basis of this communication success history.

Abstract: Provided is a puncture tool having no possibility of starting the puncture operation of a puncture needle unexpectedly when the puncture tool is operated for a purpose other than measurement of a biological sample and also provided are a device for measuring biological sample and a system for measuring biological sample. A puncture tool (100) comprises a puncture mechanism (110), a puncture mechanism control section (120) which controls puncture operation of the puncture mechanism (110), a wireless communication section (140) which performs wireless authentication by receiving a wireless signal from an external registration apparatus (200), and a puncture control circuit (150) which removes restriction on puncture prohibition of the puncture mechanism control section (120) when authentication is established at the wireless communication section (140).

Abstract: There is provided a biological sample measurement apparatus with which a search for a communication frequency at which communication with a portable terminal is possible is carried out efficiently. This apparatus comprises a measurement component 12 for detecting a blood glucose level (biological data), a transmitter for sending the detected blood glucose level to a portable terminal 23, a receiver 15 for receiving an acknowledge signal (communication success signal) and a portable terminal ID (portable terminal individual identification number) sent from the portable terminal 23, a storage component 18 for associating the communication frequency at the point of successful communication with the received portable terminal ID and storing it as communication success history along with successful information from the past, and a communication frequency selector 19 for selecting a communication frequency on the basis of this communication success history.

Abstract: A wireless blood glucose meter (2) has a blood glucose level detector (21), a transmitter (22), a receiver (23), a storage component (24), and a transmission power determiner (25). Whether or not an acknowledge signal has been received and the transmission power when the transmitter (22) has transmitted a blood glucose level are stored as history information in the storage component (24), and the transmission power determiner (25) determines the transmission power when the transmitter (22) transmits on the basis of the history information stored in the storage component (24).

Abstract: A blood glucose measurement device (50) comprises a test piece insertion unit (10) for inserting, holding, and electrically connecting a test piece on which an electrode pattern has been formed, a measurement circuit (16) for electrochemically measuring a biological sample that has been placed in the form of a spot on the test piece, a communication circuit (15) for transmitting the result of measurement with the measurement circuit (16) by wireless communication using an antenna electrode (2C) equipped with the test piece, and a switch (14) that is connected to the test piece insertion unit (10) for switching between the measurement circuit (16) and the communication circuit (15).

Abstract: When the modulation speed of the laser is increased, it is difficult to correctly detect a peak power and a bias power for controlling a laser power. The bias power current Ib is controlled by the operated value of the operation circuit 3 in accordance with the reproduction power current Ir control value of the servo amplifier 5 at the reproduction just before recording, and as for the erase power Pe, since its period is relatively long, the power is detected by the sample-hold circuit 4 and the erase power current Ie is controlled by the operation circuit 3, and the peak power PP is controlled by the operated value of the operation circuit 3 in accordance with the erase power current Ie, and therefore, a bottom hold circuit and a peak hold circuit are not required and the laser control apparatus which does not require the high-speed performance in a photodiode and a monitor circuit is realized to solve the above mentioned problem.

Abstract: When the modulation speed of the laser is increased, it is difficult to correctly detect a peak power and a bias power for controlling a laser power.