Panasonic Intellectual Property Management Co., Ltd.

Nec Corporation

Panasonic Corporation

Matsushita Electric Industrial Co., Ltd.

Panasonic I-pro Sensing Solutions Co., Ltd.

Other

Panasonic Corporaton

Takashi Saito

Kazunori Jinno

Makoto Yamada

Kazuaki Utsumi

Ayako Tsukitani

Masahiro Ofuji

Kensuke Yamazoe

Yoshinori Karasawa

Naohiro Toda

Hiroki Noguchi

Toshihide Mori

Masayoshi Kondou

Yuki Yoshikuni

Yu Jojima

Kouji Nishioka

Kouichi Wada

Hiroshi Hamano

Sayaka Nishi

Makoto Nagai

Nobuhiro Koyota

Kazutomo Isonaga

Tsutomu Fukui

Naoko Takei

Satoshi Baba

Takashi Inou

Sayaka Yamaguchi

Akira Takashima

Kenji Kumagai

Hisashi Watanabe

Shin Ukegawa

Masaki Ishiwata

Shinichi Aoki

Masanori Sugino

Hiroe Kubo

Akira Takasima

Kaoru Ibara

Naoko Takeidoi

A dome type surveillance camera includes a base, a plurality of cameras, a first connecting section, a plurality of second connecting sections, a hemispherical cover fixed to the base, and a circular rail. The first connecting section is connected on the base and connected with one first camera out of the plurality of cameras. The second connecting sections are connected on the base and connected with each of a plurality of second cameras excluding the first camera out of the plurality of cameras. The cover is disposed to cover the first connecting section, the second connecting sections, and the plurality of cameras. The rail is provided on the base and of which a center is immediately below a top of the cover.

Surveillance camera

A dome type surveillance camera includes a planar base, and a plurality of cameras. Each of the plurality of cameras is connected to the base to be movable along a circumference on the base. The plurality of cameras includes three or more cameras. Each of the plurality of cameras is rotatable in both right and left directions with an imaging direction. The imaging direction is an optical axis direction of each of the plurality of cameras as an axis such that a panoramic image formed by images captured by each of the plurality of cameras is continuous in a horizontal direction when the plurality of cameras are disposed so as to be equidistant to each other on a semicircular arc.

A surveillance camera is a dome type surveillance camera and includes a base, a connecting member connected to the base, a plurality of cameras connected to the connecting member such that imaging directions of the cameras move in an elevation angle direction with respect to the base, and a dome type cover fixed to the base so as to cover the connecting member and the plurality of cameras. One camera, out of the plurality of cameras, moves such that the imaging direction of the one camera is aligned with a top of the cover.

A lighting device is provided with an illumination unit including two or less LED light sources. The illumination unit uses the two or less LED light sources to emit light of a short wavelength band and light of a long wavelength band. An output varying unit functions to vary an output of at least the long wavelength band light. When the output varying unit receives a varying signal, the output varying unit functions to decrease the output of at least the long wavelength band light.

Lighting device

A lighting device is provided with a lighting unit including a light emitting element and fluorescent bodies, which emit light of different wavelengths when excited by light from the light emitting element. When a peak output value of emitted light is 100% in a range of 440-465 nm, the lighting unit emits light having an output value at 500 nm that is 35%-55%, an output value at 550 nm that is 45%-80%, an output value at 600 nm that is 45%-75%, and an output value at 640 nm that is 50%-80%. The lighting unit emits light having a color temperature of 4500-5500 K and with the output value at 640 nm in a range of 100%-120% relative to the output value at 600 nm and in a range of 85%-130% relative to the output value at 550 nm.

Lighting device to produce preferable preception of skin color

A lighting device includes a first light source having a first S/P ratio, a second light source having a second S/P ratio that is higher than the first S/P ratio, and a controller configured to performing dimming control of light output from the first and second light sources. The controller performs the dimming control separately on the first and second light sources at least under a snow covered condition.

A lighting device includes an LED light source that emits light having a first peak wavelength at 430 to 460 nm and a second peak wavelength at 530 to 570 nm.

A lighting unit emits light with an intensity in the wavelength from 430 to 510 nm that is maximum at 460 nm and minimum in the range from 490 to 500 nm, an intensity in the wavelength from 510 to 600 nm that is maximum in the range from 530 to 545 nm and minimum in the range from 570 to 580 nm, and an intensity in the wavelength of 600 nm or greater that is maximum in the range from 620 to 640. The lighting unit illuminates meat with light having a feeling of contrast index (FCI) of 135 to 145 and the illuminated meat has a metric hue angle from 54 to 56 and a color shift Duv from 0 to 5.

Lighting device for illuminating meat

The illumination device has a lamp fixing on the upper end of the support rod standing on the walkway to be located in a side of the roadway. An inside circumferential surface of the lamp fixing has a first arrangement surface inclined upwardly from the walkway to the roadway and a second arrangement surface inclined upwardly from the roadway to the walkway. The first arrangement surface and the second arrangement surface are provided with the light emitting diodes, respectively. The color of the light of the light emitting diode on the first arrangement surface and the second arrangement surface are set such that the S/P ratio of the scotopic luminance to the photopic luminance of the light emitting diode on the second arrangement surface is greater than that of the first arrangement surface.

Illumination device

A lighting device includes first and second light emission units. The first light emission unit emits light having a relatively low color temperature and a high feeling of contrast index. The second light emission unit emits light having a relatively high S/P ratio, which is the ratio of scotopic luminance to photopic luminance. The first light emission unit illuminates a region located at a vertical upper side of a region illuminated by the second light emission unit.

An illumination device includes an irradiation unit having a light emitting element and fluorescent bodies excited by the light from the light emitting element to radiate light of different wavelengths. The irradiation unit irradiates composite light of blue, green and red lights having half value widths of 20-40 nm, 110-150 nm and 80-110 nm and peak wavelengths of 440-465 nm, 545-555 nm and 630-650 nm, respectively. If the output value of the light in a wavelength 435-465 nm is assumed to be 100%, the output values of the lights having wavelengths of 490, 530 and 639 nm fall within 46-56%, 59-77% and 75-93%, respectively. The ratio of the output value of the light of 630 nm to that of the light of 530 nm falls within 73-86%.

Illumination device having improved visual perception of a skin color

In a photometry device, photopic vision luminance Lp is measured by a first luminance measuring unit including a first light filterand a first photoelectric converter, and scotopic vision luminance Ls is measured by a second luminance measuring unit including a second light filterand a second photoelectric converter. A calculation partcalculates mesopic vision luminance Lmes based on a measurement value (photopic vision luminance Lp) of the first luminance measuring unit and a ratio of a measurement value (scotopic vision luminance Ls) of the second luminance measuring unit to the measurement value (photopic vision luminance Lp) of the first luminance measuring unit. Consequently, the photometry device can improve measurement accuracy of the brightness (mesopic vision luminance) in mesopic vision.

Photometry device

A lithography pattern data generation method of this invention includes steps of dividing a predetermined area where said plural design data are arranged, which corresponds to an area where design patterns are to be formed, into plural partial exposure areas each in the shape of a stripe with a width corresponding to a deflection width of an exposure beam; extracting, from the plural design data, design data each falling within any of the plural partial exposure areas as a first design data group and extracting design data each extending over two or more of the plural partial exposure areas as a second design data group; generating first lithography pattern data of each of the plural partial exposure areas from the design data belonging to the first design data group; and generating second lithography pattern data of each of the plural partial exposure areas from the design data belonging to the second design data group.

Lithography pattern data generation method, lithography pattern fabrication method and charged particle lithography system

A passenger detecting system includes a plurality of antenna electrodes provided in a seat, a signal generating section, a detecting section, a switching circuit and a control unit. The signal generating section generates an electrode signal. The switching circuit sequentially supplies the electrode signal to the plurality of antenna electrodes one by one in response to a switching control signal. The detecting section detects change of the electrode signal to generate a detection signal when the electrode signal is supplied to each of the plurality of antenna electrodes. The control unit outputs the switching control signal to the switching circuit and generates a passenger data associated with a passenger on the seat based on the detection signal for each of the plurality of antenna electrodes.

Passenger detecting system and air bag system using the same

With a substrate stage and a mask stage continuously moved in the &minus;Y direction, a circuit pattern is exposed to a shaped beam until the shaped beam reaches an upper left area from a lower left area, thereby obtaining a partial exposure area. Then, after the shaped beam reaches the upper left area of the circuit pattern, the substrate stage and the mask stage are shifted in the &minus;X direction by a pitch P. Next, the substrate stage and the mask stage are continuously moved in the &plus;Y direction until the shaped beam reaches a lower end portion from an upper end portion of the circuit pattern. In this case, the shaped beam is shaped so that an exposure dose in a double exposure portion and an exposure dose in a non-double exposure portion in the partial exposure area can be equal to each other.

Growing community of inventors

Osaka, Japan

Takashi Saito