Abstract: A housing of an example of an electronic apparatus has a top surface and a bottom surface and has a flat shape. A power supply section having a flat shape is a power supply section, which is a housing case capable of accommodating a battery or is a battery, and the power supply section is provided at a position inside the housing that intersects with a reference plane perpendicular to the up-down direction. A first substrate is provided parallel to the reference plane on the top surface side relative to the power supply section. A second substrate is provided parallel to the reference plane on the bottom surface side relative to the power supply section. The electronic apparatus includes at least one of a vibrator and a speaker at a position that intersects with the reference plane.

Abstract: A clock determination apparatus includes a signal wire and a clock determiner. A clock signal is input to the signal wire. A period made up of cycles corresponding to a predetermined number of cycles of the clock signal is referred to as a unit period. The clock determiner includes circuitry configured to perform determination processing whether the clock signal is a random clock signal including a cycle changing substantially irregularly as time proceeds or a regular clock signal including substantially a constant cycle based on a comparison between waveforms of the clock signals in a plurality of unit periods.

Abstract: A clock determination apparatus includes a signal wire and a clock determiner. A clock signal is input to the signal wire. A period made up of cycles corresponding to a predetermined number of cycles of the clock signal is referred to as a unit period. The clock determiner includes circuitry configured to perform determination processing whether the clock signal is a random clock signal including a cycle changing substantially irregularly as time proceeds or a regular clock signal including substantially a constant cycle based on a comparison between waveforms of the clock signals in a plurality of unit periods.

Abstract: For the purpose of enabling proper imaging of the prostate, a first saddle coil 210 having two loop portions of a geometry suited for sandwiching the lower abdomen of a human body from the anterior and posterior sides with the two loop portions facing each other, and a second saddle coil 310 having two loop portions of a geometry suited for allowing the lower limbs of the human body to be inserted into the two loop portions, and sandwiching the lower abdomen from the right and left sides with the two loop portions facing each other, are quadrature-arranged so that the phases of magnetic resonance received signals are different by 90°, thus achieving imaging of the lower abdomen of the human body with a high S/N.

Abstract: For the purpose of enabling proper imaging of the prostate, a first saddle coil 210 having two loop portions of a geometry suited for sandwiching the lower abdomen of a human body from the anterior and posterior sides with the two loop portions facing each other, and a second saddle coil 310 having two loop portions of a geometry suited for allowing the lower limbs of the human body to be inserted into the two loop portions, and sandwiching the lower abdomen from the right and left sides with the two loop portions facing each other, are quadrature-arranged so that the phases of magnetic resonance received signals are different by 90°, thus achieving imaging of the lower abdomen of the human body with a high S/N.

Abstract: A protecting tube 51 is disposed inside the mixed phase container 1 with one end fixed to the inside of the mixed phase container 1 and the other end projecting freely into the mixed phase container 1. A detecting rod 60 is inserted into the free end of said protecting tube 51 and fixed to the protecting tube 51 with a part of the detecting rod 60. Magnets 61 are mounted in a uniform magnetic flux on the free end of the detecting rod 60 and is movable about a point F1 of the detecting rod 60 as a fulcrum. Agglomerates 20 in the mixed phase container 1 are detected by measuring magnetic flux fluctuations produced by movement of the magnets 61.

Abstract: A protecting tube 51 is disposed inside the mixed phase container 1 with one end fixed to the inside of the mixed phase container 1 and the other end projecting freely into the mixed phase container 1. A detecting rod 60 is inserted into the free end of said protecting tube 51 and fixed to the protecting tube 51 with a part of the detecting rod 60. Magnets 61 are mounted in a uniform magnetic flux on the free end of the detecting rod 60 and is movable about a point F1 of the detecting rod 60 as a fulcrum. Agglomerates 20 in the mixed phase container 1 are detected by measuring magnetic flux fluctuations produced by movement of the magnets 61.

Abstract: Agglomerates 20 in a mixed phase container 1 are detected by measuring strain in a detecting rod 50 disposed in the mixed phase container 1 in which a mixed phase of gas and powders is formed. The detecting rod 50 is disposed at an insertion angle &thgr; in the range from 20 degrees to 70 degrees with relation to the flow of gas and powders.

Abstract: A protecting tube 51 is disposed inside the mixed phase container 1 with one end fixed to the inside of the mixed phase container 1 and the other end projecting freely into the mixed phase container 1. A detecting rod 60 is inserted into the free end of said protecting tube 51 and fixed to the protecting tube 51 with a part of the detecting rod 60. Magnets 61 are mounted in a uniform magnetic flux on the free end of the detecting rod 60 and is movable about a point F1 of the detecting rod 60 as a fulcrum. Agglomerates 20 in the mixed phase container 1 are detected by measuring magnetic flux fluctuations produced by movement of the magnets 61.

Abstract: Agglomerates 20 in a mixed phase container 1 are detected by measuring strain in a detecting rod 50 disposed in the mixed phase container 1 in which a mixed phase of gas and powders is formed. The detecting rod 50 is disposed at an insertion angle &thgr; in the range from 20 degrees to 70 degrees with relation to the flow of gas and powders.

Abstract: An automated bank teller machine (ATM) is provided which is characteristically easy to configure, regardless of whether a replenish-from-the-front (RFTF) configuration or a replenish-from-the-rear (RFTR) configuration is chosen. In particular, the ATM according to the present invention includes a security chest module, a top module, and an interface module. These components are common to both configurations can be built and stored in advance, and can be thereafter configured as desired. In another embodiment, an ATM is provided that permits more than one customer to use the ATM at the same time.

Abstract: An automated bank teller machine (ATM) is provided which is characteristically easy to configure, regardless of whether a replenish-from-the-front (RFTF) configuration or a replenish-from-the-rear (RFTR) configuration is chosen. In particular, the ATM according to the present invention includes a security chest module, a top module, and an interface module. These components are common to both configurations can be built and stored in advance, and can be thereafter configured as desired. In another embodiment, an ATM is provided that permits more than one customer to use the ATM at the same time.

Abstract: A chamber for exerting an ultrasound beam on a sample solution containing particles to be concentrated, separated or arranged is provided with a view toward arbitrarily controlling the shape of a spatial distribution of potential energy created by the ultrasound beam and concentrating, separating or periodically arranging the particles. In contrast to the chamber, irradiation ultrasound sources for generating ultrasound beams are provided to create an ultrasonic intensity distribution for producing a position potential energy distribution used to exert a force forwarded in a predetermined direction or a force staying at a predetermined region to each particle. Thus, a specific spatial distribution of potential energy can be realized by ultrasound beams each having a specific intensity, a specific frequency and a specific phase or an ultrasound beam formed by superimposing these on one another.

Abstract: Using a mixed sample of a plurality of phosphoric acid compounds different in chemical structure as a sample for measurement, a .sup.31 P nuclear magnetic resonance signal obtained through polarization transfer between .sup.17 O and .sup.31 P is observed and signals obtained without polarization transfer are eliminated, whereby .sup.31 P nuclear magnetic resonance signal spectrum of an .sup.17 O-labeled phosphoric acid is selectively observed. For this purpose, a double resonance NMR detector capable of exciting .sup.17 O and .sup.31 P at the same time is connected to an NMR spectrometer, and using a pulse train which permits observation of a .sup.31 P nuclear magnetic resonance signal obtained through polarization transfer between .sup.17 O and .sup.31 P, a .sup.31 P nuclear magnetic resonance signal from the .sup.17 O-labeled phosphoric acid is observed, and signals for .sup.17 O-unlabeled .sup.31 P are eliminated.

Abstract: A continuous powder catalyst supply apparatus and a catalyst supply system that is suitable for olefin gas phase polymerization. The supply apparatus comprises a catalyst storage chamber having a catalyst inlet port and a catalyst supply port for transmitting the catalyst to the reactor. Inside the catalyst storage chamber is a catalyst supply mechanism which substantially continuously supplies the catalyst to the catalyst supply port, and a forcible discharge mechanism which forcibly discharges the catalyst, supplied from the catalyst supply mechanism, through the catalyst supply port with a pressurized gas. The apparatus can be used to supply the catalyst to the reactor with low amounts of pressurized gas. Further, the system can be configured so as to avoid contamination of stored catalyst by reactant gas.

Abstract: A continuous process for producing polyethylene or copolymers of ethylene with other copolymerizable compounds at a pressure of at least 1,000 kg/cm.sup.2 in a tubular reactor under steady conditions without imposing on the polymerization system flow pulses, while keeping the monomer conversion at 35% or lower and the melt index of the polymer at 0.1 or more.