Abstract: According to one embodiment, a magnetic resonance imaging system includes a first imaging apparatus, a first cooling system, a second imaging apparatus, a second cooling system and a cooling control device. The first imaging apparatus includes a first magnet configured to generate a static magnetic field. The first cooling system is configured to cool the first magnet. The second imaging apparatus includes a second magnet configured to generate a static magnetic field. The second cooling system is configured to cool the second magnet. The cooling control device is configured to switch a cooling target of each of the first cooling system and the second cooling system.

Abstract: According to one embodiment, a magnetic resonance imaging system includes a first imaging apparatus, a first cooling system, a second imaging apparatus, a second cooling system and a cooling control device. The first imaging apparatus includes a first magnet configured to generate a static magnetic field. The first cooling system is configured to cool the first magnet. The second imaging apparatus includes a second magnet configured to generate a static magnetic field. The second cooling system is configured to cool the second magnet. The cooling control device is configured to switch a cooling target of each of the first cooling system and the second cooling system.

Abstract: According to one embodiment, a magnetic resonance imaging system includes a first imaging apparatus, a first cooling system, a second imaging apparatus, a second cooling system and a cooling control device. The first imaging apparatus includes a first magnet configured to generate a static magnetic field. The first cooling system is configured to cool the first magnet. The second imaging apparatus includes a second magnet configured to generate a static magnetic field. The second cooling system is configured to cool the second magnet. The cooling control device is configured to switch a cooling target of each of the first cooling system and the second cooling system.

Abstract: An ultrasound imaging apparatus comprises an ultrasonic probe configured to transmit and receive an ultrasonic wave and a controller configured to control the ultrasonic probe such that an ultrasonic wave for imaging a contrast agent injected into an object and an ultrasonic wave for imaging a tissue movement of the object are transmitted in time division. A method of ultrasound imaging comprises transmitting a first ultrasonic wave and a second ultrasonic wave which hardly destroys bubbles of a contrast agent, obtaining blood flow information based on a signal generated from the first ultrasonic wave, and obtaining tissue movement information based on a signal generated from the second ultrasonic wave.

Abstract: An ultrasonic imaging apparatus and an ultrasonic diagnosis apparatus including the ultrasonic imaging apparatus comprise an image acquiring unit, extracting unit, tracking unit and physical parameter calculating unit. The image acquiring unit acquires image data of a subject, the extracting unit extracts a plurality of trackable characterizing points based on the acquired image data, the tracking unit tracks the movement of the characterizing points, and the physical parameter calculating unit acquires specific physical parameters, such as displacement, distortion and distortion velocity, based on the information derived from tracked results, of the characterizing points contained in each region of interest (ROI). Both of the ultrasonic imaging apparatus and an ultrasonic diagnosis apparatus make it possible to easily and accurately perform extraction of characterizing points and low-cost analysis of contraction/expansion functions of the heart or the like.

Abstract: A Doppler signal detecting unit 42 and spectrum calculating unit 44 measure a Doppler spectrum from a reception signal obtained by ultrasonic wave transmission/reception with respect to a diagnosis region of an object to be examined. A local maximum/minimum detecting unit 62 detects a plurality of local maximum/minimum pairs with respect to a trace waveform generated by a trace waveform generating unit 61 on the basis of the Doppler spectrum. A feature amount selecting unit 64 selects a desired waveform from a plurality of local maximum/minimum pairs in a predetermined cardiac cycle set by a cardiac cycle setting unit 63 by using heartbeat information from a living body measuring unit 9 on the basis of a preset selection criterion. A diagnostic parameter is measured on the basis of the position information or amplitude information of the selected waveform.

Abstract: A variety of maintenance work is performed for each of operation units in a substrate processing apparatus. Doors are provided at given positions on sides of an apparatus space, each of which is provided with an interlock switch. An interlock release unit is provided near each of the doors for disabling the function by the interlock switch, and for placing a specific operation unit of the operation units in the apparatus space in an off state, while holding the other operation units in an on state. Re-operation instruction units are provided at given positions on the sides of the apparatus space for placing the specific operation unit in an on state that has been placed in an off state by the manipulation of the interlock release unit.

Abstract: A Doppler signal detecting unit 42 and spectrum calculating unit 44 measure a Doppler spectrum from a reception signal obtained by ultrasonic wave transmission/reception with respect to a diagnosis region of an object to be examined. A local maximum/minimum detecting unit 62 detects a plurality of local maximum/minimum pairs with respect to a trace waveform generated by a trace waveform generating unit 61 on the basis of the Doppler spectrum. A feature amount selecting unit 64 selects a desired waveform from a plurality of local maximum/minimum pairs in a predetermined cardiac cycle set by a cardiac cycle setting unit 63 by using heartbeat information from a living body measuring unit 9 on the basis of a preset selection criterion. A diagnostic parameter is measured on the basis of the position information or amplitude information of the selected waveform.

Abstract: An ultrasound imaging apparatus comprises an ultrasonic probe configured to transmit and receive an ultrasonic wave and a controller configured to control the ultrasonic probe such that an ultrasonic wave for imaging a contrast agent injected into an object and an ultrasonic wave for imaging a tissue movement of the object are transmitted in time division. A method of ultrasound imaging comprises transmitting a first ultrasonic wave and a second ultrasonic wave which hardly destroys bubbles of a contrast agent, obtaining blood flow information based on a signal generated from the first ultrasonic wave, and obtaining tissue movement information based on a signal generated from the second ultrasonic wave.

Abstract: A variety of maintenance work is performed for each of operation units in a substrate processing apparatus. Doors are provided at given positions on sides of an apparatus space, each of which is provided with an interlock switch. An interlock release unit is provided near each of the doors for disabling the function by the interlock switch, and for placing a specific operation unit of the operation units in the apparatus space in an off state, while holding the other operation units in an on state. Re-operation instruction units are provided at given positions on the sides of the apparatus space for placing the specific operation unit in an on state that has been placed in an off state by the manipulation of the interlock release unit.

Abstract: An ultrasonic imaging apparatus and an ultrasonic diagnosis apparatus including the ultrasonic imaging apparatus comprise an image acquiring unit, extracting unit, tracking unit and physical parameter calculating unit. The image acquiring unit acquires image data of a subject, the extracting unit extracts a plurality of trackable characterizing points based on the acquired image data, the tracking unit tracks the movement of the characterizing points, and the physical parameter calculating unit acquires specific physical parameters, such as displacement, distortion and distortion velocity, based on the information derived from tracked results, of the characterizing points contained in each region of interest (ROI). Both of the ultrasonic imaging apparatus and an ultrasonic diagnosis apparatus make it possible to easily and accurately perform extraction of characterizing points and low-cost analysis of contraction/expansion functions of the heart or the like.

Abstract: A Doppler ultrasonic diagnosis apparatus is characterized by: transmitting ultrasonic beams between diagnosis sites including a motion fluid in the object's body; receiving its ultrasonic echoes; generating a display image of a Doppler spectrum consisting of the spectrum every moment of a Doppler signal in an ultrasonic Doppler effect due to a motion of a motion fluid based on the ultrasonic echoes; selecting a Doppler spectrum targeted for measurement from this generated display image; automatically recognizing the heart beat range in the selected Doppler spectrum; and measuring an index value for Doppler diagnosis every heart beat range thus recognized. With this characteristics, this apparatus simplifies manual operation during measurement using the Doppler spectrum, and reduces the operation quantity and diagnosis time required for measurement.

Abstract: Provided is a diagnostic ultrasound system producing an image whose brightness is enhanced by a contrast medium by implementing contrast echography based on intravenous injection. A diagnostic ultrasound system comprises a probe for converting an electrical driving signal into a corresponding transmission ultrasound wave and converting an echoed ultrasound wave into a corresponding electrical echo signal. The system still comprises a unit for transmitting the transmission ultrasonic wave to a subject by providing the probe the electrical driving signal substantially consisting of a fundamental component of a given driving frequency. The non-fundamental component is typically a second harmonic. A non-fundamental component of the driving frequency is intentionally lowered in power relative to the fundamental component by a suppressing element in the transmitting unit.

Abstract: An ultrasound diagnostic apparatus comprises an ultrasonic transducer and a transmitter/receiver circuit for scanning a plane section of a human body under examination with ultrasonic beams repeatedly and with a given frame period to thereby obtain receiving signals, an ultrasonic image producing circuit responsive to the receiving signals for producing ultrasonic images successively and with the frame period, an image memory unit for storing ultrasonic images corresponding to multiple frames along with time information, a setting section for setting a period of interest, a CPU for reading a sequence of ultrasonic images corresponding to the set period of interest from the image memory unit selectively and with the frame period, an overlaid image producing circuit for producing an overlaid image containing an ROI marker and outputting it repeatedly and with the frame period, a frame combining circuit for combining each of the ultrasonic images and the overlaid image which are supplied synchronously with each

Abstract: A bloodstream velocity image is formed by scanning a two-dimensional region including a blood vessel in a body to be examined with an ultrasonic wave. A velocity profile is formed by distributing either one of average velocities and maximum velocities of bloodstream velocities at a plurality of positions arranged along a first direction, along a second direction which is perpendicular to the first direction and extending across the blood vessel. A bloodstream volume is calculated from the velocity profile and a blood vessel diameter. Thus, an error caused by movement of a blood vessel accompanying pulsation can be decreased.

Abstract: An ultrasound diagnosis apparatus for obtaining an ultrasound image used with a contrast agent is disclosed. Various kinds of data relating the contrast agent can be inputted or selected and they can also be displayed with the ultrasound image on a same display. The data inputted or selected can be used for controlling condition of the system. Further, information of time related to the examination using the contrast agent can be displayed on the display.

Abstract: The invention provides an apparatus for processing silver salt photosensitive material with a small amount of processing solution. The processing solution uniformly reacts with the photosensitive material for maintaining high processing quality.The apparatus of the invention includes: a process tank 96 which is relatively small in volume; and a developer supply roller 98 which is partly soaked in the processing solution. New or unused developer is temporarily stored in a temporary reservoir 100 formed on the circumference of the roller, held in pores of sponge formed on the surface of the developer supply roller, and supplied to an inlet of photosensitive material PM in the process tank 96 with rotation of the roller 98. The new processing solution is uniformly diffused, along the width of the photosensitive material PM, in the vicinity of the inlet in the stored processing solution. Accordingly, the photosensitive material PM is evenly and efficiently processed.

Abstract: A reproduction magnification of an image to be reproduced is inputted through a inputting device. A projection optical system is adjusted according to the reproduction magnification, and then projects image light reflected from an original in the form of a slit onto a photosensitive material sheet. As projecting the slit image light, the original and the photosensitive material sheet are synchronously fed each other.