Abstract: Disclosed is a serum albumin-thioredoxin fusion body which is improved in the activity thereof and is stable with respect to the activity. The serum albumin-thioredoxin fusion body is provided, which is characterized in that the thioredoxin is a modified from in which at least a cysteine residue located at position 73 from the N-terminal of an amino acid sequence for the thioredoxin or located at a position equivalent to the position 73 is substituted by another amino acid residue. the modified serum albumin-thioredoxin fusion body is superior in the activity and stability thereof, is reduced in immunogenicity and has superior safety compared with a fusion body in which the thioredoxin is non-modified form.

Abstract: A substrate treating apparatus includes an indexer, a first processing section, a first transport mechanism, a second processing section, a second transport mechanism, a first mount table, a second mount table, and a controller. The first transport mechanism repeatedly performs a first cycle operation composed of three access operations (specifically, a first access operation, a second access operation, and a third access operation). The second transport mechanism repeatedly performs a second cycle operation composed of three access operations (specifically, a fourth access operation, a fifth access operation, and a sixth access operation).

Abstract: A substrate treating apparatus includes an indexer, a first processing section, a first transport mechanism, a second processing section, a second transport mechanism, a first mount table, a second mount table, and a controller. The first transport mechanism repeatedly performs a first cycle operation composed of three access operations (specifically, a first access operation, a second access operation, and a third access operation). The second transport mechanism repeatedly performs a second cycle operation composed of three access operations (specifically, a fourth access operation, a fifth access operation, and a sixth access operation).

Abstract: An electroencephalogram analysis apparatus includes an electroencephalogram acquisition part and a comparison part. The electroencephalogram acquisition part is configured to acquire a first electroencephalogram measured at a first region on a head of a test subject and a second electroencephalogram measured at a second region positioned behind the first region on the head of the test subject. The comparison part is configured to compare a power of the first electroencephalogram in a specific frequency band with a power of the second encephalogram in the specific frequency band.

Abstract: An electroencephalogram analysis apparatus includes an electroencephalogram acquisition part and a comparison part. The electroencephalogram acquisition part is configured to acquire a first electroencephalogram measured at a first region on a head of a test subject and a second electroencephalogram measured at a second region positioned behind the first region on the head of the test subject. The comparison part is configured to compare a power of the first electroencephalogram in a specific frequency band with a power of the second encephalogram in the specific frequency band.

Abstract: An electroencephalogram analysis apparatus includes an electroencephalogram acquisition part and a comparison part. The electroencephalogram acquisition part is configured to acquire a first electroencephalogram measured at a first region on a head of a test subject and a second electroencephalogram measured at a second region positioned behind the first region on the head of the test subject. The comparison part is configured to compare a power of the first electroencephalogram in a specific frequency band with a power of the second encephalogram in the specific frequency band.

Abstract: An infrared communication apparatus and method enabling data communication with a receiving device, regardless of a protocol with which the receiving device is compatible. A transmitting unit transmits a first packet to inquire whether a receiving device is compatible with a first protocol and transmits a second packet to inquire whether the receiving device is compatible with a second protocol, to the receiving device at least once, and transmits a plurality of third packets to inquire whether the receiving device is compatible with a third protocol, to the receiving device. A receiving unit receives a response packet indicating a protocol with which the receiving device is compatible, from the receiving device having received the first packet, the second packet, and the plurality of third packets. A data transmitting unit transmits data to the receiving device, based on the protocol indicated by the response packet received by the receiving unit.

Abstract: An infrared communication apparatus and method enabling data communication with a receiving device, regardless of a protocol with which the receiving device is compatible. A transmitting unit transmits a first packet to inquire whether a receiving device is compatible with a first protocol and transmits a second packet to inquire whether the receiving device is compatible with a second protocol, to the receiving device at least once, and transmits a plurality of third packets to inquire whether the receiving device is compatible with a third protocol, to the receiving device. A receiving unit receives a response packet indicating a protocol with which the receiving device is compatible, from the receiving device having received the first packet, the second packet, and the plurality of third packets. A data transmitting unit transmits data to the receiving device, based on the protocol indicated by the response packet received by the receiving unit.

Abstract: Seven gas ejection ports are provided in an upper surface of a transport arm, and are connected to gas supply piping. The gas supply piping is connected through a valve to a nitrogen gas supply unit. When the valve is opened with a substrate held on the transport arm, nitrogen gas is supplied from the nitrogen gas supply unit and ejected toward the entire space between the substrate held by the transport arm and the transport arm. Supplying the nitrogen gas to the space between the substrate and the transport arm prior to the loading of the substrate into a chamber causes the ambient atmosphere in the space to be replaced with the nitrogen gas. The transport arm is prevented from bringing the ambient atmosphere into the chamber, whereby the increase in oxygen concentration within the chamber is reliably inhibited. This provides a heat treatment apparatus capable of reliably inhibiting the increase in oxygen concentration within the chamber.