Sharp Kabushiki Kaisha Corporation

Sharp Corporation

Sawai Pharmaceutical Co., Ltd.

Other

Toshihiro Yanagi

Taketoshi Nakano

Asahi Yamato

Kohji Saitoh

Akizumi Fujioka

Masami Ozaki

Kohzoh Takahashi

Hisao Okada

Takafumi Kawaguchi

Hidekazu Miyata

Kazuki Takahashi

Kiyoshi Nakagawa

Hideki Morii

Kouji Kumada

Ken Inada

Masaki Uehata

Jun Nakata

Tadatsugu Nishitani

Yuji Yamamoto

Fumiyuki Kobayashi

Yuki Kawashima

Takashige Ohta

Atsuhito Murai

Takeshi Takarada

Kuniaki Tanaka

Takuji Miyamoto

Keishi Nishikubo

Shigeyuki Uehira

Yoshinori Shibata

Katumi Miki

Hiroyuki Furukawa

Noriyuki Tanaka

Keiichi Yamamoto

Makoto Takeda

Yasuhiro Yoshida

Kazuyoshi Yoshiyama

Katsuya Mizukata

Shinji Nakagawa

Satoshi Ihida

Tomohiro Kimura

Hisashi Watanabe

Kohhei Tanaka

Youhei Nakanishi

Seiichi Uchida

Hisashi Nagata

Ryuzo Yuki

Masayuki Kanehiro

Takayuki Nishiyama

Yoshiharu Kanatani

Masahiro Mitani

Xiaomang Zhang

Hirofumi Miyamoto

Yoshinobu Hirayama

Ryoh Araki

Takayuki Mizunaga

Kenji Nozawa

Masakazu Wada

Kei Oyobe

Hiroaki Sugiyama

Hirofumi Fukuoka

Norikazu Hohshi

Takuya Tsuda

Yasufumi Okamura

Yuta Ueyama

Toru Kuriyama

Kaori Umemura

Masatoshi Arimura

Akiko Takada

Kenichiroh Yamaki

Yoshitaka Iwakura

Hisaya Sangawa

Kazuhiro Tani

Kouji Saitou

Tadatsugu Nisitani

To provide a mirabegron-containing tablet that maintains the amorphous form of mirabegron even after long-term storage. Also, to provide a mirabegron-containing pharmaceutical preparation that can maintain the purity of mirabegron while preventing the generation of related substances at the time of storage, a method for producing a mirabegron-containing pharmaceutical preparation, and a method for producing a mirabegron-containing granulated product. According to an embodiment of the present invention, there is provided a mirabegron-containing pharmaceutical preparation containing mirabegron, hypromellose, and polyvinylpyrrolidone. The mirabegron-containing pharmaceutical preparation may contain a spray-dried granulated product containing the mirabegron, the hypromellose, and the polyvinylpyrrolidone.

Mirabegron-containing tablet, method for producing mirabegron-containing pharmaceutical preparation, and method for producing mirabegron-containing granulated product

A liquid crystal display device (a display device) includes a liquid crystal panel (a display panel) having an outer peripheral edge portion having a substantially circular shape and including linear edge portions that are linear at a part of the outer peripheral edge portion, and flexible printed circuit boards (mounting components) mounted in an outer portion of the liquid crystal display panel to match arrangement of the linear edge portions in a circumferential direction.

Display device

A display device () in accordance with an embodiment of the present invention includes: an LCD driving section () and an LCD controller () for causing an image based on an image signal to be displayed on an LCD (); and a CPU () for supplying an image signal to the LCD controller (), the LCD controller () being configured to supply, to the CPU (), a control signal that instructs the CPU () to supply an image signal, and the CPU () being configured to supply an image signal in a case where the CPU () receives a control signal.

Display device and control method

There is provided an image display device, in which a pixel includes sub-pixels of four or more colors that include a color in addition to the three primary colors, and which can display a high-quality image in which false colors or artifacts are suppressed. The image display device includes a pixel area in which a plurality of pixels P are arranged in a matrix shape, and each of the pixels P includes m (m is an integer which is equal to or greater than 4) sub-pixels SP. When it is assumed that the colors of the m sub-pixels SP included in one pixel are C, C, . . . , and Cm, the m sub-pixels SP which are sequentially arrayed from an arbitrary position include all of the colors of C, C, . . . , and Cm in both the vertical direction and the horizontal direction in the pixel area.

Image display device

A liquid crystal module () of the present invention includes: a backlight () (a lighting device) that emits a light; a liquid crystal panel () that is struck by a light emitted from the lighting device; and a power transmitting coil () that receives a voltage from an AC power supply, generates a magnetic field, and transfers an electrical power to a device to be charged.

Liquid crystal module and electronic device

A DC-DC converter () generates a supply voltage VPW, etc. for supplying to a drive circuit (), by converting a voltage level through an operation of a switching element which changes an electric current passing through an inductor. A mode control signal Cm is generated in a power supply control section () of the display control circuit (), and is supplied to the DC-DC converter (), whereby the DC-DC converter () is operated in a PFM control mode during a period when a load condition is light such as during a non-refreshing period in an intermittent driving, whereas the mode is changed to a PWM control mode in the other periods.

Display device and method of generating supply power therefor

The liquid crystal display device includes a liquid crystal panel including a display area for displaying images and a non-display area other than the display area, a rigid board configured to connect with an external signal source, and a flexible board. The liquid crystal panel and the flexible board are arranged in a first direction. A direction perpendicular to the first direction and along a plate surface of the liquid crystal panel is a second direction. The flexible board is larger in a dimension in the second direction than the rigid board, and includes an end portion including at least an outer portion located outside of the rigid board in the second direction, and a middle portion located about a middle of the flexible board with respect to the end portion in the second direction. The end portion is larger in dimension in the first direction than the middle portion.

According to a liquid crystal display device (), a gate driver is controlled to (a) scan all of scan signal lines during at least two driving frames contained in a first driving period and (b) not scan any of the scan signal lines during pausing frames in a pausing period which is (i) secured between the first driving period and a second driving period by which the first driving period is followed and (ii) is longer than each of the first and second driving periods.

Liquid crystal display device with drive control circuit and method for driving same

Included are: refresh a rate changing section () for changing a refresh rate of a display panel () by configuring settings for scan periods during each of which a plurality of gate signal lines (G) of the display panel () are sequentially scanned and for pause periods during each of which sequential scanning of the plurality of gate signal lines (G) is suspended; and a drive amount control section () for controlling, in accordance with a ratio of the scan periods to the pause periods, drive time during which each of the gate signal lines is driven in each of the scan periods.

Drive device and display device

In a case where a display device () receives an instruction to change a refresh rate of a display panel (), the display device () changes the refresh rate with a timing with which there is a balance between the length of time for which positive source signals are written and the length of time for which negative source signals are written.

Drive device changing refresh rate of display panel and display device including drive device

Provided for each data signal line drive circuit () are: a voltage generation circuit () that generates a drive voltage in accordance with an external voltage; and a voltage determination circuit () which determines whether or not a voltage level of at least either the external voltage or the drive voltage falls within a range of allowable voltages, in a case where the voltage level does not fall within the range of allowable voltages, operation of the voltage generation circuits () being stopped.

Display device, and method for driving display device

A source AMP output circuit () is provided with a switching circuit () for carrying out the following operation. That is, in a case where a polarity is reversed, the switching circuit () disconnects a data signal line (S(M)) from output terminals of a positive amplifier circuit () and a negative polarity amplifier circuit () each included in the source AMP output circuit (), and then connects the data signal line S(M) to a power supply which is in a power supply voltage range (Vddto Vdd) of the positive polarity amplifier circuit () or to a power supply which is in a power supply voltage range (Vddto Vdd) of the negative polarity amplifier circuit ().

Display device including data signal line drive circuit

A display device () includes: a scan line drive circuit () which line-sequentially selects from among a plurality of scan signal lines; at least one signal line drive circuit () which has a receiving circuit that receives a data signal, and which sequentially supplies the data signal to pixels linked to a scan signal line () selected by the scan line drive circuit (); a timing controller () which defines, in accordance with sync signals received from an outside source, a non-scan period during which none of the scan signal lines is selected, and which transmits, to the at least one signal line drive circuit (), an operation discriminant signal that causes the receiving circuit to be underrun during at least part of the non-scan period thus defined. The at least one signal line drive circuit () and the timing controller () are provided as separate entities.

Display device, and driving method

There is provided an image display device, in which a pixel includes sub-pixels of four or more colors that include a color in addition to the three primary colors, and which can display a high-quality image in which false colors or artifacts are suppressed. The image display device includes a pixel area in which a plurality of pixels P are arranged in a matrix shape, and each of the pixels P includes m (m is an integer which is equal to or greater than 4) sub-pixels SP. When it is assumed that the colors of the m sub-pixels SP included in one pixel are C1, C2, . . . , and Cm, the m sub-pixels SP which are sequentially arrayed from an arbitrary position include all of the colors of C1, C2, . . . , and Cm in both the vertical direction and the horizontal direction in the pixel area.

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Nara, Japan

Toshihiro Yanagi