Abstract: In a micro-bridge structure in which a temperature detecting portion 14 (diaphragm) including a bolometer thin film 7 is supported by a supporting portion 13 in a state floated from a circuit substrate 2, a reflective film 3 reflecting a THz wave is formed on the circuit substrate 2, an absorbing film 11 absorbing the THz wave is formed on the temperature detecting portion 14, and an optical resonance structure is formed by the reflective film 3 and the temperature detecting portion 14. And a gap between the reflective film 3 and the temperature detecting portion 14 is set approximately ¼ of a wavelength of an infrared ray on the basis of the wavelength of the infrared ray (in a range of approximately 1.5 to 2.5 ?m, for example), and a sheet resistance of the temperature detecting portion 14 is set in a range in which an absorptance of the THz wave becomes a predetermined value or above on the basis of the THz wave (in a range of approximately 10 to 100 ?/sq.).

Abstract: A method whereby a compound having HCV replication inhibitory activity and desired optical activity can be synthesized selectively and at high yield in a small number of steps by using a compound having a specific chiral auxiliary as a starting compound is provided. A compound represented by the formula (1-8): wherein Y represents a group represented by the following formula: Q represents a protected carbonyl group; D represents —(CH2)m—R?, etc.; and n represents an integer of 0 to 10.

Abstract: A method whereby a compound having HCV replication inhibitory activity and desired optical activity can be synthesized selectively and at high yield in a small number of steps by using a compound having a specific chiral auxiliary as a starting compound is provided. A compound represented by the formula (1-8): wherein Y represents a group represented by the following formula: Q represents a protected carbonyl group; D represents —(CH2)m—R?, etc.; and n represents an integer of 0 to 10.

Abstract: An infrared light detector with an infrared light sensitivity thereof further improved. According to the infrared light detector, an isolated region of a first electronic layer is switched between a “disconnected status” and a “connected status”. Under the connected status, saturation of an electrostatic charge quantity of the isolated region in the disconnected status is eliminated, and consequently, saturation of a variation amount of an electrical conductivity of a second electronic layer is eliminated. Therefore, the infrared light sensitivity is further improved by time integration of the variation amount of the electrical conductivity of the second electronic layer.

Abstract: A power accumulating unit of a power supply system includes a first switch section configured to achieve a first voltage output state in which an output voltage is substantially equal to a first motor driving voltage and a second switch section configured to achieve a second voltage output state in which the output voltage is substantially equal to a second motor driving voltage that is higher than the first motor driving voltage. A voltage switching control part is configured to perform a voltage switching control to switch between the first motor driving voltage and the second motor driving voltage by alternately operating the first and second switch sections to repeatedly switch between the first voltage output state and the second voltage output state.

Abstract: An infrared photodetector that is capable of efficiently detecting single photon over an extensive range of wavelengths from several ?m to several hundreds of ?m and is suitable for arraying, and wherein an oscillatory electric field of a single infrared photon (37) parallel to a plane of the patch section (36) of a microstrip antenna when the photon is incident to cause the latter to resonate therewith is converted to an oscillatory electric field (38z) in a z direction, which an electron (39) in a quantum dot (24a) in its base state subband (30) is allowed to absorb, thereby being excited to a first excitation state subband (31) to tunnel through a potential barrier (32) and set free to escape into a quantum well (26) in a ?z direction where it is absorbed. An electric field by ionization of the quantum dot (24a) as a result of escape of the electron (39) causes change in conductance of a point contact (26e).

Abstract: The present invention provides a novel class of compounds that have the activity of inhibiting HSP90 enzyme and are useful as anti-cancer agents or such, and compounds that are useful as synthetic intermediates thereof. Specifically, the present invention provides compounds represented by the following formula (1), and pharmaceutically acceptable salts thereof: wherein X, R1, R2, R3, R4, R5, R6, R7, L1, L2, and L3 are as defined in the specification.

Abstract: Compounds represented by formula (1) shown below, pharmaceutically acceptable salts thereof, and pharmaceutical compositions comprising such compounds are provided.

Abstract: A measuring method and apparatus in which a measurable object (23) is irradiated with acoustic waves to measure a change in property value of charged particles in the object from electromagnetic waves induced thereby. A part (2) of the measurable object irradiated with an acoustic focused beam (1) is in a charge distribution state in which positive charged particles (3) are greater in number in the part (2) where electromagnetic waves induced by positive charged particles (3) are not canceled by those induced by negative charged particles (4) and where net electromagnetic waves (6) are induced. Since a change in concentration of positive charged particles (3) and/or negative charged particles (4) changes the intensity of electromagnetic waves (6), it is possible to know such a change in concentration of the charged particles from a change in intensity of electromagnetic waves (6).

Abstract: In a bolometer-type THz-wave detector 1 in a micro-bridge structure in which a temperature detecting portion 14 (diaphragm) including a bolometer thin film 7 is supported by a supporting portion 13 in a state suspended from a circuit substrate, a member (dielectric cover 11) made of a dielectric material for efficiently collecting a THz wave is added to an upper part of the temperature detecting portion 14, and when a refractive index of the dielectric cover 11 is n, thickness is t, and a wavelength of the THz wave is ?, a setting is made so as to have at >?, and a gap between the dielectric cover 11 and the temperature detecting portion 14 is set at integral multiples of ?/2. By this arrangement, an absorptance of the THz wave can be improved using a structure and manufacturing method of a bolometer-type infrared detector, and a high-performance bolometer-type THz-wave detector can be manufactured with a high yield.

Abstract: A hybrid-vehicle driving system includes an engine, a transmission, a first motor/generator provided between the engine and the transmission, and a battery that can charge and discharge the first motor/generator. When an estimated output voltage of the first motor/generator becomes higher than or equal to a predetermined voltage during a gear shift operation of the transmission, the battery is electrically disconnected from the driving system, and the voltage of a power line on the side of the first motor/generator is then decreased so as to charge the battery.

Abstract: A method whereby a compound having HCV replication inhibitory activity and desired optical activity can be synthesized selectively and at high yield in a small number of steps by using a compound having a specific chiral auxiliary as a starting compound is provided. A compound represented by the formula (1-8): [wherein Y represents a group represented by the following formula: Q represents a protected carbonyl group; D represents —(CH2)m—R?, etc.; and n represents an integer of 0 to 10].

Abstract: In a micro-bridge structure in which a temperature detecting portion (diaphragm) including a bolometer thin film is supported by a supporting portion in a state floated from a circuit substrate, a reflective film reflecting a THz wave is formed on the circuit substrate, an absorbing film absorbing the THz wave is formed on the temperature detecting portion, and an optical resonance structure is formed by the reflective film and temperature detecting portion. A gap between the reflective film and temperature detecting portion measures approximately ¼ infrared wavelength (e.g., 1.5 to 2.5 ?m). Sheet resistance of the temperature detecting portion is set in a range in which an absorptance of the THz wave becomes a predetermined value or above on the basis of the THz wave (approximately 10-100 ?/sq.). The absorptance of the THz wave is drastically improved while using the structure and manufacturing technique of a bolometer-type infrared detector.

Abstract: In a bolometer-type THz-wave detector in a micro-bridge structure in which a temperature detecting portion (diaphragm) including a bolometer thin film is supported by a supporting portion in a state suspended from a circuit substrate, a member (dielectric cover) made of a dielectric material for efficiently collecting a THz wave is added to an upper part of the temperature detecting portion, and when a refractive index of the dielectric cover is n, thickness is t, and a wavelength of the THz wave is ?, a setting is made so as to have nt>?, and a gap between the dielectric cover and the temperature detecting portion is set at integral multiples of ?/2. By this arrangement, an absorption of the THz wave can be improved using a structure and manufacturing method of a bolometer-type infrared detector, and a high-performance bolometer-type THz-wave detector can be manufactured with a high yield.

Abstract: A battery unit has positive and negative terminals, a pair of battery modules, three switch modules, a bypass line and a controller. A first battery module is connected to the positive and negative terminals. The second battery module is connected in parallel with the first battery module. Each battery module includes a battery and a reactor connected together in series. The first switch module extends between the negative terminal and a negative electrode side of the first battery module. The second switch module extends between positive electrode sides of the first and second battery modules. The bypass line connects a point lying between the first battery module and the first switch module to a point lying between the second battery module and the second switch module. The third switch module is arranged in the bypass line. The controller controls an on-off state of each of the switch modules.

Abstract: An infrared light condensing apparatus that focuses an infrared light of several tens microns in wavelength at a microfine area of submicron or less and also a near-field from a microfine area of submicron or less, and permits a scanning image to be obtained. It includes a solid immersion lens including a medium of high index of refraction for coupling an incident light or an outgoing light to an antenna, a measured specimen disposed on a base plane of the solid immersion lens, an antenna disposed away from the base plane at a distance ¼ of an effective wavelength of the light for causing the light to geometrically resonate therewith, a rod-like conductive probe having a sharply point end projecting from the antenna, and a position control means such as a triaxial XYZ mechanical stage for controlling the position of the probe with the intermediary of a cantilever.

Abstract: The object of the present invention is to provide a compound useful for the prevention and treatment of viral infectious diseases, and particularly liver diseases caused by HCV infection due to its having a high degree of replication inhibitory activity against HCV, its production method, an intermediate compound useful for its production and a pharmaceutical composition containing these compounds, and the present invention relates to a compound represented by the formula (I): (wherein A represents —(CH2)n—, etc.; B represents —(C?O)—, etc.; D represents —(CH2)m—R?, etc.; E represents a hydrogen atom, etc.; G represents —(CH2)p-J, etc.; bond Q represents a single bond or double bond; and R1, R2 and R3 may be the same or different and each represent a hydrogen atom, etc.), a prodrug thereof or a pharmaceutically acceptable salt thereof.

Abstract: A vehicle control apparatus includes a motor unit, a power accumulating device, a charging power control section, a vehicle state detecting section, a braking/driving force control section, a turning determination section and a charging power correction section. The motor unit is configured to generate an independent driving/braking force for at least each of left and right driving wheels. The charging power control section is configured to set charging power supplied to the power accumulating device in accordance with a power accumulation state of the power accumulating device. The braking/driving force control section is configured to control a braking force or a driving force generated by the motor unit based on the operating state of the vehicle. The turning determination section is configured to determine whether a prescribed vehicle turning condition exists. The charging power correction section is configured to increase the charging power when the prescribed vehicle turning condition exists.

Abstract: A power accumulating unit of a power supply system includes a first switch section configured to achieve a first voltage output state in which an output voltage is substantially equal to a first motor driving voltage and a second switch section configured to achieve a second voltage output state in which the output voltage is substantially equal to a second motor driving voltage that is higher than the first motor driving voltage. A voltage switching control part is configured to perform a voltage switching control to switch between the first motor driving voltage and the second motor driving voltage by alternately operating the first and second switch sections to repeatedly switch between the first voltage output state and the second voltage output state.

Abstract: A voltage is applied across gate electrodes (103A) and (103B) in a two-dimensional electronic system (101) placed under a magnetic field, and the polarity of an electric current passed between ohmic electrodes (102D) and (102S) is selected to bring about inversion of electron spins based on a non-equilibrium distribution of electrons in a quantum Hall edge state and to initialize the polarization of nuclear spins. An oscillatory electric field of a nuclear magnetic resonance frequency is applied to coplanar waveguides (104A) and (104B) to control the nuclear spin polarization. The controlled spin polarization is read out by measuring the Hall resistance from ohmic electrodes (102VA) and (102VB).