Abstract:
A DC-DC converter circuit includes a boosting circuit having at least part of a DC-DC converter; a control signal circuit that controls the boosting circuit; and a power supply unit being electrically connected to both of the boosting circuit and the control signal circuit and supplying at least the control signal circuit with electric power. The DC-DC converter includes a plurality of capacitors and switching units enabling each of the plurality of capacitors to be electrically independent, and the control signal circuit transmits a signal to the switching units when the DC-DC converter is not operating in intermittent operation thereof, the signal indicating each of the plurality of capacitors being made to be electrically independent.
Abstract:
A method for driving an electrophoretic display device includes: during a first partial rewriting period, partially rewriting the displayed image by supplying a common voltage to a common electrode, supplying a second voltage corresponding to a second gradation to each first pixel displaying a first gradation before rewriting and displaying the second gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or putting each other pixel into a high impedance state; and during a second partial rewriting period, partially rewriting the image by supplying the common voltage to the common electrode, supplying a first voltage corresponding to the first gradation to each second pixel displaying the second gradation before the rewriting and displaying the first gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or by putting each other pixel into a high impedance state.
Abstract:
A DC-DC converter includes a body circuit that performs a first operation of outputting an input voltage inputted from one end to another end based on a control signal, and a second operation of boosting the input voltage and outputting the input voltage boosted through the other end; and a control circuit that outputs the control signal to the body circuit, based on an external load connected to the other end of the body circuit.
Abstract:
The present invention provides an avian influenza vaccine containing a peptide-bound liposome wherein; the peptide contains: (1) an amino acid sequence shown by any one of SEQ ID NO:1 to 9, or (2) an amino acid sequence shown by any one of SEQ ID NO:1 to 9 wherein one or two amino acids are substituted, has a length of 9 to 11 amino acids, and is capable of inducing HLA-restricted cytotoxic T lymphocytes; wherein the liposome contains a phospholipid having an acyl group with 14 to 24 carbon atoms and one unsaturated bond or a hydrocarbon group with 14 to 24 carbon atoms and one unsaturated bond, and a liposome stabilizer; and wherein the peptide is bound to the surface of the liposome.
Abstract translation:本发明提供了含有肽结合脂质体的禽流感疫苗,其中: 肽包含:(1)SEQ ID NO:1至9中任一个所示的氨基酸序列,或(2)SEQ ID NO:1至9中任一个所示的氨基酸序列,其中一个或两个氨基酸 具有9至11个氨基酸的长度,并能够诱导HLA限制性细胞毒性T淋巴细胞; 其中所述脂质体含有具有14-24个碳原子的酰基和一个不饱和键或具有14-24个碳原子的烃基和一个不饱和键的磷脂和脂质体稳定剂; 并且其中所述肽结合到所述脂质体的表面。
Abstract:
A method for driving an electrophoretic display device that is provided with a display unit having a plurality of pixels in each of which an electrophoretic element containing a plurality of electrophoretic particles is sandwiched between a pixel electrode and a common electrode that face each other is provided. The method for driving an electrophoretic display device includes: during a first partial rewriting period, when an image that is displayed on the display unit is rewritten, partially rewriting the image that is displayed on the display unit by supplying a common voltage to the common electrode, by supplying a second voltage to the pixel electrode of each of first pixels among the above-mentioned plurality of pixels, the above-mentioned each of the first pixels displaying a first gradation before the rewriting of the image and then displaying a second gradation that is different from the first gradation after the rewriting of the image, the second voltage being set so as to correspond to the second gradation, and by supplying a voltage that is the same as the common voltage to the pixel electrode of each of pixels other than the first pixels among the above-mentioned plurality of pixels or by putting the pixel electrode of each of pixels other than the first pixels among the above-mentioned plurality of pixels into a high impedance state; and during a second partial rewriting period, when the image that is displayed on the display unit is rewritten, partially rewriting the image that is displayed on the display unit by supplying the common voltage to the common electrode, by supplying a first voltage to the pixel electrode of each of second pixels among the above-mentioned plurality of pixels, the above-mentioned each of the second pixels displaying the second gradation before the rewriting of the image and then displaying the first gradation after the rewriting of the image, the first voltage being set so as to correspond to the first gradation, and by supplying a voltage that is the same as the common voltage to the pixel electrode of each of pixels other than the second pixels among the above-mentioned plurality of pixels or by putting the pixel electrode of each of pixels other than the second pixels among the above-mentioned plurality of pixels into a high impedance state.
Abstract:
A method for driving an electrophoretic display device includes: during a first partial rewriting period, partially rewriting the displayed image by supplying a common voltage to a common electrode, supplying a second voltage corresponding to a second gradation to each first pixel displaying a first gradation before rewriting and displaying the second gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or putting each other pixel into a high impedance state; and during a second partial rewriting period, partially rewriting the image by supplying the common voltage to the common electrode, supplying a first voltage corresponding to the first gradation to each second pixel displaying the second gradation before the rewriting and displaying the first gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or by putting each other pixel into a high impedance state.
Abstract:
An electrophoretic display device is provided. The electrophoretic display device includes: a pixel electrode; a counter electrode that is provided opposite to the pixel electrode; an electrophoretic element being sandwiched between the pixel electrode and the counter electrode; a pixel switching element; a capacitor that is connected to the pixel switching element; a switching circuit that is provided between the capacitor and the pixel electrodes; a first control line that is connected to the switching circuit; and a second control line that is connected to the switching circuit. The switching circuit performs switching operation on the basis of a signal outputted from the capacitor for a connection state switchover so as to connect either the first control line or the second control line to the pixel electrode.
Abstract:
A method for driving an electrophoretic display device includes: during a first partial rewriting period, partially rewriting the displayed image by supplying a common voltage to a common electrode, supplying a second voltage corresponding to a second gradation to each first pixel displaying a first gradation before rewriting and displaying the second gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or putting each other pixel into a high impedance state; and during a second partial rewriting period, partially rewriting the image by supplying the common voltage to the common electrode, supplying a first voltage corresponding to the first gradation to each second pixel displaying the second gradation before the rewriting and displaying the first gradation after rewriting, and supplying a voltage equal to the common voltage to each other pixel or by putting each other pixel into a high impedance state.
Abstract:
The present invention provides an avian influenza vaccine containing a peptide-bound liposome wherein; the peptide contains: (1) an amino acid sequence shown by any one of SEQ ID NO:1 to 9, or (2) an amino acid sequence shown by any one of SEQ ID NO:1 to 9 wherein one or two amino acids are substituted, has a length of 9 to 11 amino acids, and is capable of inducing HLA-restricted cytotoxic T lymphocytes; wherein the liposome contains a phospholipid having an acyl group with 14 to 24 carbon atoms and one unsaturated bond or a hydrocarbon group with 14 to 24 carbon atoms and one unsaturated bond, and a liposome stabilizer; and wherein the peptide is bound to the surface of the liposome.
Abstract translation:本发明提供了含有肽结合脂质体的禽流感疫苗,其中: 肽包含:(1)SEQ ID NO:1至9中任一个所示的氨基酸序列,或(2)SEQ ID NO:1至9中任一个所示的氨基酸序列,其中一个或两个氨基酸 具有9至11个氨基酸的长度,并能够诱导HLA限制性细胞毒性T淋巴细胞; 其中所述脂质体含有具有14-24个碳原子的酰基和一个不饱和键或具有14-24个碳原子的烃基和一个不饱和键的磷脂和脂质体稳定剂; 并且其中所述肽结合到所述脂质体的表面。
Abstract:
It is intended to provide expired dendritic cells having characteristics of the following (E1) to (E3): (E1) not shifting into a mature type due to an action of a natural immune stimulant or a permanent immune potentiator; (E2) having the same shape as immature DC; and (E3) expressing IL-10. It is intended to provide Permanently activated dendritic cells having the following characteristics: (M2-1) having projecting dendrites and forming aggregation clusters; (M2-2) being capable of activating unreacted cytotoxic T cells (CTL); (M2-3) having stable properties under the action of anti-CD40 monoclonal antibody; and (M2-4) showing a high expression level of at least one member selected from the group consisting of CD80, CD83 and CD86.