Digitization of film, and more particularly film scanning, includes capturing light transmitted through the film so as to acquire a digitized image. This includes a captured frame comprising a digitized image of at least a portion of at least one image frame of a sequence of image frames, and at least a portion of one or more transport perforations. The method can further include determining an image offset corresponding to at least the captured frame on the basis of a comparison between at least one detected edge in the captured image and a corresponding datum location. A signal representing the image offset can be generated to enable alignment of at least the captured frame.

Provided are methods and systems for automated location and identification of multiple objects in an aircraft cabin. A method utilizes a wireless client, RFID reader, and camera, which together form a set. Each set is associated with a specific inspection zone in the cabin. The RFID reader determines the presence of a RFID tag in only one zone. Further, the camera captures an image of that zone. A data feedback is generated based on both the image and the RFID reader response. The data feedback is transmitted by the wireless client to a router and is analyzed to determine the presence of the object in the inspection zone and, if present, the identity of the object. The data feedback is associated with the location of the zone in the aircraft cabin, which is known or may be determined using a set of wireless routers positioned throughout the cabin.

There is herein described a method and apparatus for the calibration and validation of motion picture scans.

There is herein described a method and apparatus for the calibration and validation of motion picture scans.

An earphone is provided. The earphone includes two earpiece main bodies, two MIPI cameras, an MIPI driver and a processor. The two MIPI cameras are respectively disposed on the two earpiece main bodies and located on the sides facing away from a wearer. The processor is connected to MIPI interfaces of the two MIPI cameras through the MIPI driver, and acquires images photographed by the two MIPI cameras.

The applicant proposes a method and an apparatus to realize a faster, easier and more precise multispectral digitalization of films. The proposed method and apparatus ensure quality control of the multispectral film digitization using sensors and can correct the digital images for film shrinkage and deformation. This can allow for efficient digitization of films which can enable an effective automatization of the mass safeguarding of archived films. The proposed film digitizer apparatus can comprise a novel and improved light source module, which comprise a light assembly that can allow for better illumination of the film and shorter required exposure time that can lead to lower acquisition time for each of the various wavelength image acquisitions for each film image. Monitoring of the spectral distribution and/or the temperature of the light sources can ensure quality control of the digitalization.

The applicant proposes a method and an apparatus to realize a faster, easier and more precise multispectral digitalization of films. The proposed method and apparatus ensure quality control of the multispectral film digitization using sensors and can correct the digital images for film shrinkage and deformation. This can allow for efficient digitization of films which can enable an effective automatization of the mass safeguarding of archived films. The proposed film digitizer apparatus can comprise a novel and improved light source module, which comprise a light assembly that can allow for better illumination of the film and shorter required exposure time that can lead to lower acquisition time for each of the various wavelength image acquisitions for each film image. Monitoring of the spectral distribution and/or the temperature of the light sources can ensure quality control of the digitalization.

The invention discloses a pipeline detection device, which comprises: a mounting frame provided in a three-layer structure; a first wire spool mounted at a middle layer of the mounting frame and wound with a first climbing wire, wherein the first climbing wire is connected to a first detection camera, and a photographing direction of the first lens extends along an axial direction of the first climbing wire; a second wire spool mounted at a bottom layer of the mounting frame, wherein the second climbing wire is connected to a second detection camera, a photographing direction of the second lens extends along an axial direction of the second climbing wire, and a photographing direction of the third lens extends along a radial direction of the second climbing wire. The invention solves the problem that the existing pipeline detection device cannot adapt to the detection requirements of different pipeline environments.

A plurality of captured images obtained by repeatedly shooting a rotating object are obtained. In a case where a feature point corresponding to a certain point on the object is specified in one captured image and another captured image, a position information obtaining unit obtains position information relating to a position of the feature point in the one captured image and the another captured image. A rotation angle information obtaining unit obtains rotation angle information relating to a rotation angle of the object between a point of time when the one captured image is shot and a point of time when the another captured image is shot based on position information. A moving image data generating unit generates moving image data by selecting frame images of the moving image data from the plurality of photographed images based on rotation angle information of each of the plurality of photographed images.

The present invention provides a method and a device for transmitting and receiving a broadcast signal for restoring a pulled-down signal. The method for transmitting the broadcast signal, according to one embodiment of the present invention, comprises the steps of: pulling video data down so as to reconfigure the same; encoding the reconfigured video data; encoding signaling information for the reconfigured video data; generating the broadcast signal including the encoded video data and the encoded signaling information; and transmitting the generated broadcast signal.