50results about How to "Efficiently incident" patented technology

[Problem] To provide an artery visualization device capable of very appropriately visualizing a to-be-punctured artery and an artery imaging device used for the artery visualization device.[Solution] An artery visualization device (10) includes en irradiation unit (30) which irradiates the near-infrared light emitted from a light source (32) toward a back-side skin surface (22) at a visualization site (20) where a to-be-punctured artery (21) is running, a ht guiding part (40) which encapsulates the light source and is pressed against the back-side skin surface and which is formed with a material of transmitting the near-infrared light emitted from the light, source and suppressing reflection of the near-infrared light on the surface of the back-side skin surface, an optical filter (50) which blocks visible light and transmits the near-infrared light passing through a front-side skin surface (23) at the visualization site, a camera (60) (an imaging unit) which receives the near-infrared light passing through the optical filter to capture an image of the visualization site (20), and a monitor (70) (a display unit) which displays the image captured by the camera.

Disclosed herein is an optical waveguide device including a cladding having first and second surfaces opposite to each other, a core laminated to the first surface of the cladding for guiding light in a longitudinal direction thereof, the core having a pair of light incident and emergent portions at the opposite ends, and a pair of light collimating or focusing members bonded to the second surface of the cladding at the opposite ends corresponding to the light incident and emergent portions of the core.

A retinal scanning display device is disclosed which is configured to include: a light source emitting a light beam; a scanner scanning onto a viewer's retina the light beam emitted from the light source; a light exit at which the light beam scanned by the scanner exits the retinal scanning display device; and a pupil expanding element operable to expand an exit pupil of the retinal scanning display device. The pupil expanding element may be disposed at a position which is offset from an intermediate image plane occurring between the light source and the light exit, along and within an optical path defined between the light source and the light exit.

A solar cell is provided. The solar cell includes a substrate, a first electrode, a second electrode, a seed layer, and a plurality of nanorods. The substrate has a first surface and a second surface opposite to each other. A conductive type of a portion of the substrate adjacent to the first surface is first conductive type, and a conductive type of the remaining portion of the substrate is second conductive type. The first electrode is disposed on the first surface. The second electrode is disposed on the second surface. The seed layer is disposed on the first surface. The nanorods are disposed on the seed layer.

A first thin film diode (100A) has a first semiconductor layer (10A) and a first light blocking layer (12A) disposed on the substrate side of the first semiconductor layer. A second thin film diode (100B) has a second semiconductor layer (10B) and a second light blocking layer (12B) disposed on the substrate side of the second semiconductor layer. An insulating film (14) is formed between the first semiconductor layer (10A) and the first light blocking layer (12A) and between the second semiconductor layer (10B) and the second light blocking layer (12B). A thickness D1 of a portion of the insulating film (14) positioned between the first semiconductor layer (10A) and the first light blocking layer (12A) is different from a thickness D2 of a portion of the insulating film (14) positioned between the second semiconductor layer (10B) and the second light blocking layer (12B). The intensity of light in a first wavelength region incident on the first semiconductor layer (10A) is higher than the intensity of light in the first wavelength region incident on the second semiconductor layer (10B). The intensity of light in a second wavelength region including a wavelength longer than the maximum wavelength of the first wavelength region incident on the second semiconductor layer (10B) is higher than the intensity of light in the second wavelength region incident on the first semiconductor layer (10A).

The present invention provides prodrugs of selective androgen receptor modulators (SARMs), and their use in treating or reducing the incidence of osteoporosis, a variety of hormone-related conditions, conditions associated with Androgen Decline in Aging Male (ADAM); conditions associated with Androgen Decline in Female (ADIF), and muscular wasting conditions, obesity, dry eye conditions, and prostate cancer. The prodrugs are also useful in oral androgen replacement therapy and male contraception.

The invention relates to a non-invasive method to diagnose the changes of molecular structures of organism tissues from body surface and a dedicated apparatus. The apparatus is comprised of a Fourier Transform infrared spectrometer and a set of additional accessories. Said additional accessories include a mid-IR fiber optics sampling attachment, a fiber coupling part, and an infrared detector part. The detection method is comprised of placing the ATR probe of the dedicated apparatus on the skin surface of a region to be tested, and scanning more than one time in which the resolution of the apparatus is 1-32 cm−1 and the range of the spectrum is 800-4000 cm−1. It is possible to detect changes in molecular structures of living biological tissues in the early stages of cancer, and testees will not feel uncomfortable during testing. The method is easy to operate, quick, accurate, and it doesn't harm the body.

Provided herein is a method for altering an electronic property of a structure comprising an oxide surface or an oxide surface in electronic communication with the structure, the method comprising providing a covalently-bound film comprising at least one organic acid residue on a portion of the oxide surface so that at least one of the following properties of the structure is modified: (a) the charge carrier injection barrier properties; (b) the charge conductivity properties; (c) the charge transport properties; (d) the work function properties; (e) the sub-threshold slope; and (f) the threshold voltage.

An electro-optical device includes an insulating substrate, a switching element, at least one PIN diode, and at least one reflector. The switching element includes a first polysilicon semiconductor layer formed on the insulating substrate, and a gate electrode formed between the insulating substrate and the first semiconductor layer. Each of the at least one PIN diode includes a second polysilicon semiconductor layer formed on the insulating substrate. The at least one reflector is formed in the same layer as the gate electrode and opposite the second semiconductor layer or layers of the at least one PIN diode.

An incident prediction system and an incident prediction method are provided for predicting an incident. The system comprises a crowd detection interface for receiving a plurality of mobile device identifiers and an incident database wherein a plurality of weight factors is associated with a plurality of stored mobile device identifiers. The weights associated to mobile devices which were present at a site during a previous, historical incident are higher. The system further comprises a prediction subsystem configured for determining a total weight factor at a site to predict an occurrence of an incident. The system and the method may provide information on a composition of a crowd which may help to better prevent incidents from happening. As such, the provided system and method may enable a more effective prediction of incidents compare to currently available systems and methods.

An in-vehicle illuminating device 1 capable of efficiently guiding luminous flux emitted from a luminous source to a light guiding body. The in-vehicle illuminating device 1 is provided with a rod-shaped light guiding body 13 which reflects, on its inner surface, light rays incident from an optical incidence plane 16 provided at an end 13a to guide the light rays to the other end longitudinally provided, a lamp 19 which emits light to a direction orthogonal to the longitudinal direction of the rod-shaped light guiding body 13 and is arranged in the vicinity of the optical incidence plane 16, and an light introducing body 20 for introducing the luminous flux emitted from the lamp 19 to the optical incidence plane 16. The light introducing body 20 allows the optical incidence plane 16 to be set within a range of the luminous flux emitted from the lamp 19.

A retinal scanning display device is disclosed which is configured to include: a light source emitting a light beam; a scanner scanning onto a viewer's retina the light beam emitted from the light source; a light exit at which the light beam scanned by the scanner exits the retinal scanning display device; and a pupil expanding element operable to expand an exit pupil of the retinal scanning display device. The pupil expanding element may be disposed at a position which is offset from an intermediate image plane occurring between the light source and the light exit, along and within an optical path defined between the light source and the light exit.

It is a collimator adapted to convert divergent light beams outputted from an optical fiber bundle to parallel light beams through a collimator lens. A large diameter optical fiber is disposed between an optical fiber bundle, which is a bundle of a large number of multimode optical fibers and serves as one optical transmission path, and a collimator lens. A cross-section of the core of the large diameter optical fiber is larger than a range in which the cores of the optical fibers of the optical fiber bundle are present. Also, a group of divergent light beams outputted from the optical fibers of the optical fiber bundle is converted by the large diameter optical fiber to one light beam.

An illumination device includes a light source device, a first collimate optical system on which a light beam emitted from the light source device is made incident, a condensing optical system provided at a post-stage of the first collimate optical system, a rod provided at a post-stage of the condensing optical system, a second collimate optical system provided at a post-stage of the rod, a lens integrator provided at a post-stage of the second collimate optical system, and a superimposing lens provided at a post-stage of the lens integrator. The lens integrator includes a first lens array and a second lens array provided at a post-stage of the first lens array. A light-emitting end face of the rod and a lens surface of the second lens array are substantially conjugate with each other.

An illumination device includes a light source device, a first collimate optical system on which a light beam emitted from the light source device is made incident, a condensing optical system provided at a post-stage of the first collimate optical system, a rod provided at a post-stage of the condensing optical system, a second collimate optical system provided at a post-stage of the rod, a lens integrator provided at a post-stage of the second collimate optical system, and a superimposing lens provided at a post-stage of the lens integrator. The lens integrator includes a first lens array and a second lens array provided at a post-stage of the first lens array. A light-emitting end face of the rod and a lens surface of the second lens array are substantially conjugate with each other.