Abstract: Object: To provide heat-expandable microspheres with which large-diameter foamed particles which are lightweight and have enhanced strength, cushioning properties, and the like can be formed. Resolution Means: Heat-expandable microspheres having a foaming agent encapsulated in an outer shell of a polymer, the heat-expandable microspheres having an average particle size (D50) before foaming of from 100 to 500 ?m, and a coefficient of variation of a particle size distribution before foaming (logarithmic scale) of not greater than 15%.

Abstract: An anti-hypothermia composition is provided, in particular an anti-hypothermia composition that prevents hypothermia caused by general anesthesia during surgical operations. The composition prevents hypothermia by preventing the decrease in the biological function of patients and correcting acidosis. Specifically, the anti-hypothermia composition is a preparation containing a bicarbonate ion and provided in the form of an infusion fluid. The infusion fluid preferably contains sodium bicarbonate as a major component that serves as a source of the bicarbonate ion, along with each or a combination of other electrolytes, glucose and amino acids.

Abstract: A control section 100 measures a DPCH_RSCP and a DPCH-ISCP of every path, and calculates a DPCH_RSCP and a DPCH-ISCP for every wireless link. The control section 100 then calculates a DPCH_SIR for every wireless link, and calculates a difference in the DPCH_SIR between wireless links. In the case where the calculated difference in the DPCH_SIR is smaller than a preset threshold value of the DPCH_SIR difference, received TPC data are discarded, and the control section 100 does not execute transmitted power control based on the TPC data. On the other hand, in the case where the calculated difference in the DPCH_SIR is larger than the preset threshold value of the difference in the DPCH_SIR, the control section 100 carries out the transmitted power control based on the TPC data with the wireless link whose DPCH_SIR is larger.

Abstract: An anti-hypothermia composition is provided, in particular an anti-hypothermia composition that prevents hypothermia caused by general anesthesia during surgical operations. The composition prevents hypothermia by preventing the decrease in the biological function of patients and correcting acidosis. Specifically, the anti-hypothermia composition is a preparation containing a bicarbonate ion and provided in the form of an infusion fluid. The infusion fluid preferably contains sodium bicarbonate as a major component that serves as a source of the bicarbonate ion, along with each or a combination of other electrolytes, glucose and amino acids.

Abstract: A control section 100 measures a DPCH_RSCP and a DPCH-ISCP of every path, and calculates a DPCH_RSCP and a DPCH-ISCP for every wireless link. The control section 100 then calculates a DPCH_SIR for every wireless link, and calculates a difference in the DPCH_SIR between wireless links. In the case where the calculated difference in the DPCH_SIR is smaller than a preset threshold value of the DPCH_SIR difference, received TPC data are discarded, and the control section 100 does not execute transmitted power control based on the TPC data. On the other hand, in the case where the calculated difference in the DPCH_SIR is larger than the preset threshold value of the difference in the DPCH_SIR, the control section 100 carries out the transmitted power control based on the TPC data with the wireless link whose DPCH_SIR is larger.

Abstract: A mobile device which can reduce an error rate in phase determination in antenna verification and intend to improve a reception performance is obtained. When a more likely phase difference is selected from two predetermined candidate phase differences, based on correlation values between a received signal from a first antenna of a BTS and respective signals in which a received signal from a second antenna of the BTS has been phase-rotated by the two predetermined candidate phase differences respectively, a weighting processing unit 16 of the mobile device performs a weighting process with respect to the above described correlation values so that the more likely candidate phase difference may be easily selected based on information on a phase difference between the first and second antennas notified from the BTS.

Abstract: A method for facilitating postoperative awakening of patients from anesthesia does not depend on the experience of anesthesiologists. Also provided are an anesthesia arousal composition for use in this method and a preparation containing a bicarbonate ion that facilitates awakening from anesthesia. Specifically, the anesthesia arousal composition is provided in the form of infusion fluid. The method for controlling and facilitating awakening from anesthesia involves administering the anesthesia arousal composition. The present invention preferably provides an anesthesia arousal composition or an acidosis-correcting composition containing sodium bicarbonate as a major component that serves as a source of the bicarbonate ion, along with each or a combination of another electrolyte, glucose and an amino acid.

Abstract: In a folding rotary portable terminal, a first case having a display section for at least displaying information and side face keys and are coupled to a second case having at least a camera section and side face keys and through a hinge part having at least two degrees of freedom in rotation, namely open/close and orthogonal directions. When the first case is rotated by 180° about the rotary shaft of the hinge part from an opened state of the first case and the second case to a folding state where the first case is superposed on the second case with the display section directed outward, the side face keys on the different side faces of the first case and the second case come to the same side. Thus, even in the folding state, various functions can be operated easily.

Abstract: The present invention provides an inhibitor of decrease in body temperature which comprises at lease one kind of an amino acid(s) selected from the group consisting of valine, asparatic acid, glycine and cystein as an active substance. This inhibitor of decrease in body temperature can inhibit the decrease in body temperature caused by general anesthesia and the like, and prevent and/or improve complications accompanied with the decrease in body temperature. It is preferable that the inhibitor of decrease in body temperature contain either valine, asparatic acid, glycine or cystein in concentration of 0.01 to 10 W/V %; further contain an electrolyte(s); and the inhibitor be in the form of infusion solution preparation.

Abstract: At least one of the electrodes of an electron gun assembly is constructed by coupling at least first and second electrode members arranged in a direction of passing of electron beams. The first electrode member has a projecting portion on an end face thereof, which is to be coupled to the second electrode member disposed adjacent to the first electrode member. The first electrode member is coupled to the second electrode member via the projecting portion.

Abstract: The electron beam generating section in an electron gun assembly includes a cathode having an electron emitting surface. The surface of the cathode is divided into at least three regions of first, second and third regions which have different electron emission capabilities. The first region is arranged in the center of the surface of the cathode. The second region has its portions arranged on opposite sides of the first region in the horizontal direction. The third region has its portions arranged on opposite sides of the first region in the vertical direction.

Abstract: At least one of electrodes of an electron gun assembly is constructed by coupling at least first and second electrode members arranged in a direction of passing of electron beams. The first electrode member has a projecting portion on an end face thereof, which is to be coupled to the second electrode member disposed adjacent to the first electrode member. The first electrode member is coupled to the second electrode member via the projecting portion.

Abstract: An electron gun structure applied to a color cathode-ray tube comprises a focus electrode, an ultimate acceleration electrode and at least one intermediate electrode disposed between the focus electrode and the ultimate acceleration electrode, the focus electrode, the ultimate acceleration electrode and the at least one intermediate electrode forming a main lens. The electron gun structure also comprises a voltage application unit for applying to the focus electrode a dynamic voltage increasing in accordance with an increase in a degree of deflection of the electron beams, and applying to the intermediate electrode a voltage obtained by dividing a voltage applied to the ultimate acceleration electrode by means of a voltage dividing resistor.

Abstract: A main lens includes a second segment, a sixth grid and an additional electrode disposed between the second segment and the sixth grid. A first-level constant voltage and a second-level constant voltage are applied to the second segment and sixth grid, respectively. A third-level voltage, which is at a level between the first level and the second level, is applied to the additional electrode. In accordance with the increase in a deflection amount of an electric beam, the third-level voltage varies as a value expressed by ((voltage to the additional electrode)−(voltage to the second segment))/((voltage to the sixth grid)−(voltage to the second segment)). An auxiliary lens having lenses including a third grid and a first segment has a focusing power decreasing in accordance with an increase in the deflection amount of the electron beam.

Abstract: An electron gun assembly has at least one additional electrode located along the equipotential plane of a potential distribution formed between a focusing electrode and anode electrode forming a main lens. In a no-deflection state, the additional electrode receives a voltage of a predetermined level corresponding to the potential of the equipotential plane on which the additional electrode is located. In a deflection state, letting Vf be the application voltage of the focusing electrode, Eb be the application voltage of the anode electrode, and Vs be the application voltage of the addition electrode, a value (Vs−Vf)/(Eb−Vf) changes with an increase in electron beam deflection amount, while the additional electrode forms an electron lens having different focusing powers in the horizontal direction and vertical direction.

Abstract: A main lens comprises a second segment G5-2, a sixth grid G6 and an additional electrode GM disposed between the second segment G5-2 and sixth grid G6. A first-level constant voltage and a second-level constant voltage are applied to the second segment and sixth grid, respectively. A third-level voltage, which is at a level between the first level and the second level, is applied to the additional electrode. In accordance with the increase in deflection amount of an electric beam, the third-level voltage varies a value expressed by ((voltage to the additional electrode)—(voltage to the second segment))/((voltage to the sixth grid)—(voltage to the second segment)). An auxiliary lens comprising lenses including a third grid G3 and a first segment G5-1 has a focusing power decreasing in accordance with an increase in deflection amount of the electron beam.

Abstract: The electron beam generating section in an electron gun assembly includes a cathode having an electron emitting surface. The surface of the cathode is divided into at least three regions of first, second and third regions which have different electron emission capabilities. The first region is arranged in the center of the surface of the cathode. The second region has its portions arranged on opposite sides of the first region in the horizontal direction. The third region has its portions arranged on opposite sides of the first region in the vertical direction.

Abstract: A color cathode-ray tube apparatus comprises an electron gun structure for generating three electron beams arranged in line, the three electron beams comprising a center beam and a pair of side beams. The electron gun structure forms a main lens for ultimately focusing the three electron beams on a phosphor screen. The main lens is formed by a focus electrode, an additional electrode and an anode electrode which are arranged in a direction of traveling of electron beams.

Abstract: An electron gun assembly includes a plurality of cathodes arranged in an in-line direction, at least first through fourth grids having electron beam passing holes arranged in an in-line direction, and an insulation support for sandwiching the cathodes and the grids between and fixing the cathodes and the grids from a direction perpendicular to the in-line direction. The second grid and the fourth grid are supplied with substantially the same low potential, the third grid is supplied with a potential higher than the potential of the fourth grid, and the second grid is fixed to the insulation support on a side of the third grid. The third grid has a cup-shaped electrode on a side of the second grid, the cup-shaped electrode including a plane portion having electron beam passing holes, an opening portion, and planting portions planted in the insulation support.

Abstract: An inline type electron gun assembly has a main lens for focusing three electron beams on a phosphor screen. A resistor is arranged in a cathode ray tube. A voltage obtained by dividing a high voltage with the resistor is applied to an intermediate electrode. Voltages of a focusing electrode, the intermediate electrode, and a final accelerating electrode that constitute the main lens are determined to increase sequentially. Electron beam holes in the intermediate electrode on the focusing electrode side, and electron beam holes in the intermediate electrode on the final focusing electrode side form vertically elongated holes longer in the vertical direction than in the horizontal direction. Electron beam holes in the focusing electrode on the intermediate electrode side and electron beam holes in the final accelerating electrode on the intermediate electrode side form open holes having no side wall portions.